mhurhangee/patent-ind-claim-en huggingface dataset:
An integrated circuit system comprising: a ring oscillator comprising a first plurality of logic gates connected in a ring configuration in which an output of each except a last of the plurality of logic gates is used as an input for a next one of the plurality of logic gates, the output of the last of the plurality of logic gates being fed back to and used as an input for a first of the plurality of logic gates; a second plurality of logic gates configured to implement a heater configured to generate a controlled amount of heat, the second plurality of logic gates also being configured to implement a temperature sensor configured to measure a temperature of the ring oscillator; and one or more logic circuits coupled to the heater and the temperature sensor, and configured to control the heater to heat the ring oscillator only until the temperature of the ring oscillator is one of a plurality of predefined temperatures, during or after which the ring oscillator is configured to start and operate. a ring oscillator comprising a first plurality of logic gates connected in a ring configuration in which an output of each except a last of the plurality of logic gates is used as an input for a next one of the plurality of logic gates, the output of the last of the plurality of logic gates being fed back to and used as an input for a first of the plurality of logic gates; a second plurality of logic gates configured to implement a heater configured to generate a controlled amount of heat, the second plurality of logic gates also being configured to implement a temperature sensor configured to measure a temperature of the ring oscillator; and one or more logic circuits coupled to the heater and the temperature sensor, and configured to control the heater to heat the ring oscillator only until the temperature of the ring oscillator is one of a plurality of predefined temperatures, during or after which the ring oscillator is configured to start and operate.
A blow molded article characterised in that the article comprises at least three layers wherein • layer A comprises polymer, • layer B comprises a foam composition comprising high density polyethylene having a quotient of melt strength and apparent viscosity > 2 cN/k.Pa.s. • layer C comprises polymer wherein the layer comprising the foam composition is enclosed between two layers A and C and wherein the melt strength is determined as described in ISO 16790:2005 under the conditions described in the description and the apparent viscosity is determined as described in ISO 11443:2014 under the conditions described in the description and wherein the foam composition is produced with a physically blowing agent and without a chemical blowing agent, wherein the melt strength of the high density polyethylene ≥ 10 cN. • layer A comprises polymer, • layer B comprises a foam composition comprising high density polyethylene having a quotient of melt strength and apparent viscosity > 2 cN/k.Pa.s. • layer C comprises polymer
A buckle switch including a magnetic sensor and a mold made of synthetic resin that surrounds the magnetic sensor, wherein the mold includes a base mold that holds the magnetic sensor and a top mold that is integrated with the base mold , characterized in that the magnetic sensor is provided in a sensor chip , and a pair of terminals extends from the sensor chip and in that the base mold is directly contacted with the sensor chip . the magnetic sensor is provided in a sensor chip , and a pair of terminals extends from the sensor chip and in that the base mold is directly contacted with the sensor chip .
An on-board device , comprising: an air-conditioning unit configured to perform air conditioning by blowing air-conditioning air into a vehicle cabin from an air outlet port that faces the vehicle cabin , and to perform, in accordance with remote control, pre-air conditioning for air-conditioning the vehicle cabin before an occupant gets into a vehicle ; a seat moving unit configured to move a vehicular seat in a seat front-rear direction, the vehicular seat being disposed such that a front face of a seat back faces the air outlet port ; and a control unit configured to, when the remote control is performed for performing the pre-air conditioning, control the air-conditioning unit such that the pre-air conditioning is performed, and to control the seat moving unit such that the vehicular seat moves to a seat front side. an air-conditioning unit configured to perform air conditioning by blowing air-conditioning air into a vehicle cabin from an air outlet port that faces the vehicle cabin , and to perform, in accordance with remote control, pre-air conditioning for air-conditioning the vehicle cabin before an occupant gets into a vehicle ; a seat moving unit configured to move a vehicular seat in a seat front-rear direction, the vehicular seat being disposed such that a front face of a seat back faces the air outlet port ; and a control unit configured to, when the remote control is performed for performing the pre-air conditioning, control the air-conditioning unit such that the pre-air conditioning is performed, and to control the seat moving unit such that the vehicular seat moves to a seat front side.
A system comprising: an electric motor (104; 304; 404; 506; 508) coupled to a first transmission (112; 306; 406; 408; 510, 512); a first clutch (106; 410) for selectively engaging the first transmission (112; 306; 406; 408; 510; 512) to a propulsion transmission (108; 308; 422; 412; 514) or a brake clamping system (116; 120; 312; 424; 516), wherein, in response to engagement with the propulsion transmission (108; 308; 422; 412; 914), the electric motor (104; 304; 404; 506; 508) drives an aircraft wheel , wherein, in response to engagement with the actuator ram, the electric motor (104; 304; 404; 506; 508) drives the brake clamping system (116; 120; 312; 424; 516) to apply force to an aircraft brake disk stack. an electric motor (104; 304; 404; 506; 508) coupled to a first transmission (112; 306; 406; 408; 510, 512); a first clutch (106; 410) for selectively engaging the first transmission (112; 306; 406; 408; 510; 512) to a propulsion transmission (108; 308; 422; 412; 514) or a brake clamping system (116; 120; 312; 424; 516), wherein, in response to engagement with the propulsion transmission (108; 308; 422; 412; 914), the electric motor (104; 304; 404; 506; 508) drives an aircraft wheel , wherein, in response to engagement with the actuator ram, the electric motor (104; 304; 404; 506; 508) drives the brake clamping system (116; 120; 312; 424; 516) to apply force to an aircraft brake disk stack.
A combustor panel, comprising: a panel wall comprising a proximal surface and a distal surface opposite the proximal surface ; a standoff formed over the distal surface of the panel wall , the standoff comprising a wall and a face , an aperture formed through the standoff and extending from the face of the standoff to the proximal surface of the panel wall , wherein the face of the standoff is oriented at an angle between 90 degrees and 160 degrees relative to a plane parallel to the distal surface of the panel wall , and characterized in that : a proximal edge of the face of the standoff proximate the distal surface is raised relative to the distal surface of the panel wall such that the distal surface and a portion of the wall extending from the distal surface to the proximal edge define a space or cavity that is devoid of material. a panel wall comprising a proximal surface and a distal surface opposite the proximal surface ; a standoff formed over the distal surface of the panel wall , the standoff comprising a wall and a face , an aperture formed through the standoff and extending from the face of the standoff to the proximal surface of the panel wall , wherein the face of the standoff is oriented at an angle between 90 degrees and 160 degrees relative to a plane parallel to the distal surface of the panel wall , and characterized in that : a proximal edge of the face of the standoff proximate the distal surface is raised relative to the distal surface of the panel wall such that the distal surface and a portion of the wall extending from the distal surface to the proximal edge define a space or cavity that is devoid of material. a proximal edge of the face of the standoff proximate the distal surface is raised relative to the distal surface of the panel wall such that the distal surface and a portion of the wall extending from the distal surface to the proximal edge define a space or cavity that is devoid of material.
Electronic lighting system comprising - a first light source (L1) adapted to emit light with a first brightness as a function of a first driving signal (PWM1) having a first frequency (f1), wherein a light frequency (fL) of the light emitted by the first light source (L1) is the first frequency (f1) of the first driving signal (PWM1), - at least one second light source (L2) having a main light sensor (Als2) for providing a brightness of light surrounding the second light source (L2), wherein the first light source (L1) is arranged in visual connection with the at least one second light source (L2) such that the light emitted by the first light source (L1) is detected by the main light sensor (Als2), and wherein the second light source (L2) is prepared to emit light with a second brightness as a function of a second driving signal (PWM2) with a second frequency (f2), the second frequency (f2) of the second driving signal (PWM2) being adjusted to the light frequency (fL) of the light emitted by the first light source (L1) such that the first and second frequencies (f1, f2) are synchronized, therein the light frequency (fL) is detected by means of the main light sensor (Als2). - a first light source (L1) adapted to emit light with a first brightness as a function of a first driving signal (PWM1) having a first frequency (f1), wherein a light frequency (fL) of the light emitted by the first light source (L1) is the first frequency (f1) of the first driving signal (PWM1), - at least one second light source (L2) having a main light sensor (Als2) for providing a brightness of light surrounding the second light source (L2), wherein the first light source (L1) is arranged in visual connection with the at least one second light source (L2) such that the light emitted by the first light source (L1) is detected by the main light sensor (Als2), and wherein the second light source (L2) is prepared to emit light with a second brightness as a function of a second driving signal (PWM2) with a second frequency (f2), the second frequency (f2) of the second driving signal (PWM2) being adjusted to the light frequency (fL) of the light emitted by the first light source (L1) such that the first and second frequencies (f1, f2) are synchronized, therein the light frequency (fL) is detected by means of the main light sensor (Als2).
A semiconductor sensor comprising: • a source element ; • a drain element ; • a semiconductor channel element between the source element and the drain element for forming an electrically conductive channel; • a first insulator between the semiconductor channel element and a solution to be sensed; • a reference electrode configured to be in contact with the solution , the reference electrode being configured to set an electric potential of the solution; • a bias voltage source for generating an external sensor bias voltage for electrically biasing the reference electrode ; and • a sensing surface for interacting with the solution comprising analytes for generating a surface potential change at the sensing surface dependent upon the concentration of the analytes in the solution, wherein the semiconductor sensor comprises a ferroelectric capacitance element for generating a negative capacitance for providing a differential gain between the external sensor bias voltage and an internal sensor bias voltage sensed at a surface of the channel element facing the first insulator , the semiconductor sensor being characterised in that the ferroelectric capacitance element is placed between the bias voltage source and the reference electrode . • a source element ; • a drain element ; • a semiconductor channel element between the source element and the drain element for forming an electrically conductive channel; • a first insulator between the semiconductor channel element and a solution to be sensed; • a reference electrode configured to be in contact with the solution , the reference electrode being configured to set an electric potential of the solution; • a bias voltage source for generating an external sensor bias voltage for electrically biasing the reference electrode ; and • a sensing surface for interacting with the solution comprising analytes for generating a surface potential change at the sensing surface dependent upon the concentration of the analytes in the solution,
An impregnation device for trickle impregnation of a stator or armature of an electric machine with a synthetic resin curing under temperature increase, comprising - a holding device which can be tilted vertically with respect to the horizontal , and to which a drive motor is attached as a rotary drive for the stator or the armature, - a drive shaft operatively connected to the drive motor , - a clamping device which is non-rotatably connected to the drive shaft and capable of detachably connecting the stator or the armature to the drive shaft , - a trickle device (24; 24a, 24b) capable of applying a synthetic resin onto at least one axial end of windings of the stator or the armature, - and a heating device capable of heating the windings of the stator or the armature to a trickle temperature and to a comparatively higher curing temperature, characterized in that the heating device comprises an electromagnetic inductor (6, 6*) which is arranged coaxially or axially parallel to the stator or the armature, wherein the inductor (6, 6*) is electrically connected to a voltage source which operates as a frequency converter, wherein the inductor (6, 6*) and its voltage source are connected to an actuating element of an actuator capable of arranging the inductor (6, 6*) on the holding device so as to be movable back and forth coaxially or axially parallel to the longitudinal axis of the stator or the armature, and arranging the voltage source on the holding device so as to be movable back and forth parallel to the longitudinal axis of the stator or the armature. - a holding device which can be tilted vertically with respect to the horizontal , and to which a drive motor is attached as a rotary drive for the stator or the armature, - a drive shaft operatively connected to the drive motor , - a clamping device which is non-rotatably connected to the drive shaft and capable of detachably connecting the stator or the armature to the drive shaft , - a trickle device (24; 24a, 24b) capable of applying a synthetic resin onto at least one axial end of windings of the stator or the armature, - and a heating device capable of heating the windings of the stator or the armature to a trickle temperature and to a comparatively higher curing temperature,
A fluid extractor assembly, comprising: a main duct having an upstream section , a downstream section oriented transversely with respect to the upstream section and an elbow interposed between the upstream and downstream sections, the main duct comprising first and second torus sectors at the elbow to respectively define first and second apertures , the first torus sector provided as an exterior shell of the elbow, with the second torus sector disposed within the first torus sector beginning at the elbow to form a central flow path within an interior surface of the second torus sector and a condensate collection gap about the central flow path and between an exterior surface of the second torus sector and an interior surface of the first torus sector; and an upstream duct disposed in parallel with the downstream section and to extend through the first aperture and to the second aperture for fluid communication with the downstream section. a main duct having an upstream section , a downstream section oriented transversely with respect to the upstream section and an elbow interposed between the upstream and downstream sections, the main duct comprising first and second torus sectors at the elbow to respectively define first and second apertures , the first torus sector provided as an exterior shell of the elbow, with the second torus sector disposed within the first torus sector beginning at the elbow to form a central flow path within an interior surface of the second torus sector and a condensate collection gap about the central flow path and between an exterior surface of the second torus sector and an interior surface of the first torus sector; and an upstream duct disposed in parallel with the downstream section and to extend through the first aperture and to the second aperture for fluid communication with the downstream section.
A computer implemented method of configuring an optical path, wherein the method is implemented by a node controller, and the method comprising: selecting with one or more processors a wavelength for the optical path; generating with one or more processors, a first request for a first type of node in the optical path; generating with one or more processors a second request for a second type of node in the optical path, the first type of node and the second type of node in different domains and having different data plane capabilities, wherein the first and second requests are generated as a function of a joint configuration model accommodating both types of nodes, the joint configuration model comprises a Yet Another Next Generation, YANG, model describing operations for establishing the optical path, and the joint configuration model is used to convert a central frequency and channel spacing in a single format to the same central frequency and channel spacing in a different nomenclature for the first type of node and the second type of node; and sending the first request from the one or more processors to the first type of node and the second request to the second type of node to configure the optical path. selecting with one or more processors a wavelength for the optical path; generating with one or more processors, a first request for a first type of node in the optical path; generating with one or more processors a second request for a second type of node in the optical path, the first type of node and the second type of node in different domains and having different data plane capabilities, wherein the first and second requests are generated as a function of a joint configuration model accommodating both types of nodes, the joint configuration model comprises a Yet Another Next Generation, YANG, model describing operations for establishing the optical path, and the joint configuration model is used to convert a central frequency and channel spacing in a single format to the same central frequency and channel spacing in a different nomenclature for the first type of node and the second type of node; and sending the first request from the one or more processors to the first type of node and the second request to the second type of node to configure the optical path.
A protective pressure plate for a battery module, comprising: a pressure plate body having a strip-like shape, wherein the pressure plate body includes an upper surface and a lower surface that are opposed in a thickness direction (Z) of the pressure plate body and two side surfaces that are opposed in a width direction (Y) of the pressure plate body , at least one portion of each of the side surfaces is recessed toward a center line of the pressure plate body to form a protective recess , the upper surface of the pressure plate body has a maximum width greater than a maximum width of the lower surface .
A method implemented by computer means for determining an ophthalmic lens adapted to a wearer, the method comprising: - a wearer data providing step, during which wearer data comprising at least an indication of the prescription of the wearer are provided, - a locomotion scenario providing step during which a locomotion scenario is provided, the locomotion scenario comprising at least an input locomotion parameter and visual environment data indicative of a visual environment, the locomotion parameter comprising at least movement data indicative of at least a translation movements of the head of the wearer upon movement in a visual environment, - an output parameter providing step during which a target value of an output parameter is provided, the output parameter being a locomotion parameter of the wearer or an optical parameter of the ophthalmic lens having an impact on a locomotion parameter of the wearer, - an ophthalmic lens determining step, during which an ophthalmic lens adapted to the wearer is determined based at least on the wearer data so as to have the output parameter as close as possible to the target value of the output parameter when carrying out the locomotion scenario using the ophthalmic lens, wherein the output parameter is the retinal flow of the wearer when carrying out the locomotion scenario using the ophthalmic lens. - a wearer data providing step, during which wearer data comprising at least an indication of the prescription of the wearer are provided, - a locomotion scenario providing step during which a locomotion scenario is provided, the locomotion scenario comprising at least an input locomotion parameter and visual environment data indicative of a visual environment, the locomotion parameter comprising at least movement data indicative of at least a translation movements of the head of the wearer upon movement in a visual environment, - an output parameter providing step during which a target value of an output parameter is provided, the output parameter being a locomotion parameter of the wearer or an optical parameter of the ophthalmic lens having an impact on a locomotion parameter of the wearer, - an ophthalmic lens determining step, during which an ophthalmic lens adapted to the wearer is determined based at least on the wearer data so as to have the output parameter as close as possible to the target value of the output parameter when carrying out the locomotion scenario using the ophthalmic lens, wherein the output parameter is the retinal flow of the wearer when carrying out the locomotion scenario using the ophthalmic lens.
An antimicrobial composition suitable for use on skin and wounds comprising a source of ionic silver; a quaternary ammonium cationic surfactant present at a level of more than or equal to 0.025% by weight; and ethylenediaminetetra-acetic acid (EDTA) present as the di-, tri- or tetra-basic salts of EDTA at a level of from 0.2% to 1% by weight; wherein the composition has a pH of 4 to 6; and the ionic silver is present in the composition at a level of from 0.01% to 10% by weight.