mhurhangee/patent-ind-claim-en huggingface dataset:
A solder joint structure obtained by joining an aluminum member made of aluminum or aluminum alloy with a joint member using a solder material, the solder joint structure comprising: a glass layer formed on a surface of the aluminum member; an Ag layer laminated on one surface of the glass layer; and a solder layer laminated on one surface of the Ag layer, wherein crystalline oxide particles are dispersed in the Ag layer. a glass layer formed on a surface of the aluminum member; an Ag layer laminated on one surface of the glass layer; and a solder layer laminated on one surface of the Ag layer, wherein crystalline oxide particles are dispersed in the Ag layer.
An automobile door comprising a glass member, a frame including a resin member joined with the glass member, and one or more resin coating layers disposed on at least one of the glass member and the resin member, wherein, the glass member is a window glass, the resin member includes at least one panel for fastening the window glass, the glass member and the resin member are joined through the one or more resin coating layers, among the one or more resin coating layers, a layer contiguous with the glass member is a modified polyolefin layer formed from a resin composition including a polyolefin, the modified polyolefin layer being at least one type selected from the group consisting of a layer including a reaction product 1 of a maleic anhydride-modified polyolefin, a bifunctional epoxy resin, and a bifunctional phenol compound, a layer including a reaction product 2 of a maleic anhydride-modified polyolefin and a thermoplastic epoxy resin, and a layer including a mixture of a polyolefin and a thermoplastic epoxy resin. the glass member is a window glass, the resin member includes at least one panel for fastening the window glass, the glass member and the resin member are joined through the one or more resin coating layers, among the one or more resin coating layers, a layer contiguous with the glass member is a modified polyolefin layer formed from a resin composition including a polyolefin, the modified polyolefin layer being at least one type selected from the group consisting of a layer including a reaction product 1 of a maleic anhydride-modified polyolefin, a bifunctional epoxy resin, and a bifunctional phenol compound, a layer including a reaction product 2 of a maleic anhydride-modified polyolefin and a thermoplastic epoxy resin, and a layer including a mixture of a polyolefin and a thermoplastic epoxy resin.
A light emitting device comprising: lead frame units including a first lead frame and a second lead frame spaced apart from each other, the first and second lead frames each comprising a top surface and an opposing bottom surface; a facing region where the first and second lead frames face each other; fixing spaces formed at the facing region and at regions adjacent to opposite side edges of the respective first and second lead frames , the opposite side edges being connected to an edge of the first lead frame or the second lead frame which is adjacent to the facing region; stepped portions formed on sidewalls of the fixing spaces ; a light emitting diode chip mounted on the first lead frame ; wherein the stepped portions comprise stepped portions formed on sidewalls of the fixing space formed at the facing region and stepped portions formed on sidewalls of the fixing spaces formed at the regions adjacent to opposite side edges of the respective first and second lead frames , and an area of a lower portion of each of the fixing spaces is greater than an upper portion of each of the fixing spaces , and the fixing space formed at the facing region is connected to the fixing spaces formed at the regions adjacent to the opposite side edges of the respective first and second lead frames . lead frame units including a first lead frame and a second lead frame spaced apart from each other, the first and second lead frames each comprising a top surface and an opposing bottom surface; a facing region where the first and second lead frames face each other; fixing spaces formed at the facing region and at regions adjacent to opposite side edges of the respective first and second lead frames , the opposite side edges being connected to an edge of the first lead frame or the second lead frame which is adjacent to the facing region; stepped portions formed on sidewalls of the fixing spaces ; a light emitting diode chip mounted on the first lead frame ; wherein the stepped portions comprise stepped portions formed on sidewalls of the fixing space formed at the facing region and stepped portions formed on sidewalls of the fixing spaces formed at the regions adjacent to opposite side edges of the respective first and second lead frames , and an area of a lower portion of each of the fixing spaces is greater than an upper portion of each of the fixing spaces , and the fixing space formed at the facing region is connected to the fixing spaces formed at the regions adjacent to the opposite side edges of the respective first and second lead frames .
A computer-implemented method , comprising: receiving , by a processor device of a computer system , a signal corresponding to a release of an accelerator , receiving , by the processor device , a signal corresponding to a first tap on a brake pedal , comprising determining an action on the brake pedal by a pressure within a predetermined pressure threshold interval and/or for a time period within a predetermined time threshold interval, wherein said first tap comprising an initiated physical interaction with the brake pedal and a subsequent release of the physical interaction with the brake pedal , determining , by the processor device , a requested braking torque, applying the requested braking torque as a response to the first tap on the brake pedal , and maintaining the applied braking torque after said tap on the brake pedal . receiving , by a processor device of a computer system , a signal corresponding to a release of an accelerator , receiving , by the processor device , a signal corresponding to a first tap on a brake pedal , comprising determining an action on the brake pedal by a pressure within a predetermined pressure threshold interval and/or for a time period within a predetermined time threshold interval, wherein said first tap comprising an initiated physical interaction with the brake pedal and a subsequent release of the physical interaction with the brake pedal , determining , by the processor device , a requested braking torque, applying the requested braking torque as a response to the first tap on the brake pedal , and maintaining the applied braking torque after said tap on the brake pedal .
Tiltable metallurgical vessel having a round cross section, wherein the metallurgical vessel 1 is at least partially surrounded by a support ring , and the support ring is at a distance from the metallurgical vessel in the radial direction, characterized in that the metallurgical vessel has at least three brackets , each having a respective pin , the support ring has at least three receiving openings , which are suitable for receiving the pins , wherein the receiving openings permit shifting of the pin in the radial direction, and there are at least three locking devices floatingly mounted and arranged inside the support ring , which secure the pins against falling out of the receiving opening and the bracket .
A clutch assembly (26; 52; 52A; 52B; 52C; 52D; 152; 652; 752) comprising: a clutch mechanism (30; 54; 54A; 54B; 54C; 54D; 154; 654; 754) having an input member (34; 54-1; 54-1A; 54-1B; 54-1C; 54-1D; 154-1), an output member (36; 54-2; 54-2A; 54-2B; 54-2C; 54-2D; 154-2), and an actuating mechanism (38; 54-6; 54A-6; 54B-6; 54C-6; 54D-6; 154-6; 554-6; 654-6) to govern selective torque transmission from the input member to the output member, wherein the actuating mechanism is powered by electrical current; and characterized in that the clutch assembly further comprises a vibrational energy harvesting device (32; 56; 56A; 56B; 56C; 56D; 156; 256; 356; 456; 656) electrically connected to the actuating mechanism, wherein the vibrational energy harvesting device is configured to scavenge available vibrational energy (E) to generate the electrical current that powers the actuating mechanism. a clutch mechanism (30; 54; 54A; 54B; 54C; 54D; 154; 654; 754) having an input member (34; 54-1; 54-1A; 54-1B; 54-1C; 54-1D; 154-1), an output member (36; 54-2; 54-2A; 54-2B; 54-2C; 54-2D; 154-2), and an actuating mechanism (38; 54-6; 54A-6; 54B-6; 54C-6; 54D-6; 154-6; 554-6; 654-6) to govern selective torque transmission from the input member to the output member, wherein the actuating mechanism is powered by electrical current; and characterized in that the clutch assembly further comprises a vibrational energy harvesting device (32; 56; 56A; 56B; 56C; 56D; 156; 256; 356; 456; 656) electrically connected to the actuating mechanism, wherein the vibrational energy harvesting device is configured to scavenge available vibrational energy (E) to generate the electrical current that powers the actuating mechanism.
An automatic analyzer comprising: a reaction container disk that is configured to hold a reaction container , a stirring mechanism that is configured to stir liquid contained in the reaction container in a non-contact manner; a reagent disk that is configured to hold a reagent container ; and a reagent dispensing mechanism that is configured to suction and discharge a reagent contained in the reagent container , wherein the stirring mechanism is provided at a position where the reagent dispensing mechanism discharges the reagent, characterized by further comprising: a carrying mechanism that is configured to carry the reaction container between the reaction container disk and the stirring mechanism ; and the reagent dispensing mechanism is configured to discharge the reagent, which is sucked from the reagent container , to the reaction container installed in the stirring mechanism . a reaction container disk that is configured to hold a reaction container , a stirring mechanism that is configured to stir liquid contained in the reaction container in a non-contact manner; a reagent disk that is configured to hold a reagent container ; and a reagent dispensing mechanism that is configured to suction and discharge a reagent contained in the reagent container , wherein the stirring mechanism is provided at a position where the reagent dispensing mechanism discharges the reagent, characterized by further comprising: a carrying mechanism that is configured to carry the reaction container between the reaction container disk and the stirring mechanism ; and the reagent dispensing mechanism is configured to discharge the reagent, which is sucked from the reagent container , to the reaction container installed in the stirring mechanism . a carrying mechanism that is configured to carry the reaction container between the reaction container disk and the stirring mechanism ; and the reagent dispensing mechanism is configured to discharge the reagent, which is sucked from the reagent container , to the reaction container installed in the stirring mechanism .
A food preparation device comprising: - at least two energy sources (10, 20 30); - a chamber into which at least two types of energy are providable via the at least two energy sources ; and - a cooking controller operably coupled to the at least two energy sources to selectively distribute power to respective ones of the at least two energy sources, wherein the at least two energy sources comprise a radio frequency (RF) capacitive heating source , wherein the at least two energy sources also comprise a cold air source for cooling of a food product exterior surface, that the RF capacitive heating source comprises a ground plate and an anode plate and that the RF capacitive heating source is configured to provide heat for cooking and thawing the food product disposed in the chamber , characterized in that the ground plate and the anode plate are flat, horizontal plates situated parallel to each other, wherein one of the ground plate or the anode plate is mobile along a vertical axis, and that the food preparation device further comprises a proximity sensor to sense a distance between the ground plate and the anode plate , wherein the anode plate and the ground plate are configured to be automatically mechanically positioned via the cooking controller according to settings preprogrammed into the cooking controller . - at least two energy sources (10, 20 30); - a chamber into which at least two types of energy are providable via the at least two energy sources ; and - a cooking controller operably coupled to the at least two energy sources to selectively distribute power to respective ones of the at least two energy sources, wherein the at least two energy sources comprise a radio frequency (RF) capacitive heating source , wherein the at least two energy sources also comprise a cold air source for cooling of a food product exterior surface, that the RF capacitive heating source comprises a ground plate and an anode plate and that the RF capacitive heating source is configured to provide heat for cooking and thawing the food product disposed in the chamber , characterized in that the ground plate and the anode plate are flat, horizontal plates situated parallel to each other, wherein one of the ground plate or the anode plate is mobile along a vertical axis, and that the food preparation device further comprises a proximity sensor to sense a distance between the ground plate and the anode plate , wherein the anode plate and the ground plate are configured to be automatically mechanically positioned via the cooking controller according to settings preprogrammed into the cooking controller .
Method of managing the braking force on a wheel w of a vehicle v equipped with at least a pair of hybrid brake actuators 3, each brake actuator 3 comprising a first brake actuator 3a and a second brake actuator 3b, said method comprising the steps of: a) Determining the targeted braking force FT, b) Applying a main braking force E3a to the wheel w by the mean of the first brake actuator 3a; c) applying a complementary braking force E3b to the wheel w by the mean of a second brake actuator 3b in such a way that the requested force FT is actually delivered; d) Monitoring the actual braking force FD delivered to the wheel w; e) modulating one or more of the main braking force E3a and the complementary braking force E3b wherein the main braking force E3a may be equally modulated at several wheels, and wherein the complementary braking force E3b is modulated at each wheel w independently. a) Determining the targeted braking force FT, b) Applying a main braking force E3a to the wheel w by the mean of the first brake actuator 3a; c) applying a complementary braking force E3b to the wheel w by the mean of a second brake actuator 3b in such a way that the requested force FT is actually delivered; d) Monitoring the actual braking force FD delivered to the wheel w; e) modulating one or more of the main braking force E3a and the complementary braking force E3b wherein the main braking force E3a may be equally modulated at several wheels, and wherein the complementary braking force E3b is modulated at each wheel w independently.
Water-conducting household appliance , with: - a water container with a treatment chamber therein, the water container having a drain at the bottom, - a pump , - a filter between the drain and the pump , - a water supply with water pipes , valves , the pump and the filter , whereby - a flexible or bendable flexible line connects to the drain and runs downwards from the drain at an angle between 15° and 0° to the vertical, characterized in that - a length-adjustable telescopic line connects to the flexible line and leads to the filter , the telescopic line running at an angle of between 0° and 20° to the horizontal, - a drain valve is arranged between the telescopic line and the filter , - the filter is arranged downstream of the drain valve , - the telescopic line is designed to comprise a plurality of individual lines , - the individual lines are designed to be rigid in themselves and have different diameters in order to form the telescopic line when inserted into one another, for the purpose of changing its length. - a water container with a treatment chamber therein, the water container having a drain at the bottom, - a pump , - a filter between the drain and the pump , - a water supply with water pipes , valves , the pump and the filter , - a flexible or bendable flexible line connects to the drain and runs downwards from the drain at an angle between 15° and 0° to the vertical, - a length-adjustable telescopic line connects to the flexible line and leads to the filter , the telescopic line running at an angle of between 0° and 20° to the horizontal, - a drain valve is arranged between the telescopic line and the filter , - the filter is arranged downstream of the drain valve , - the telescopic line is designed to comprise a plurality of individual lines , - the individual lines are designed to be rigid in themselves and have different diameters in order to form the telescopic line when inserted into one another, for the purpose of changing its length.
A non-transitory computer-readable medium having logic stored thereon that, in response to execution by one or more processors of a restriction management system , causes the restriction management system to perform actions for automatically generating notifications of flight restrictions, the actions comprising: receiving , by the restriction management system, flight plan information, wherein the flight plan information includes a planned flight area and a planned flight period of time; querying , by the restriction management system, a restriction data store to retrieve an initial set of restriction definitions relevant to the flight plan information; generating , by the restriction management system, information for presenting a checklist based on a comparison of restriction definitions from the initial set of restriction definitions to a set of checklist items; transmitting , by the restriction management system, the information for presenting the checklist to a user device for presentation; re-querying , by the restriction management system, the restriction data store to retrieve an updated set of restriction definitions relevant to the flight plan information; comparing , by the restriction management system, the updated set of restriction definitions to the initial set of restriction definitions; periodically repeating at least the re-querying and comparing actions at a rate that increases over time up to the planned flight period of time; and transmitting , by the restriction management system, a notification to the user device in response to detecting a difference between the updated set of restriction definitions and the initial set of restriction definitions. receiving , by the restriction management system, flight plan information, wherein the flight plan information includes a planned flight area and a planned flight period of time; querying , by the restriction management system, a restriction data store to retrieve an initial set of restriction definitions relevant to the flight plan information; generating , by the restriction management system, information for presenting a checklist based on a comparison of restriction definitions from the initial set of restriction definitions to a set of checklist items; transmitting , by the restriction management system, the information for presenting the checklist to a user device for presentation; re-querying , by the restriction management system, the restriction data store to retrieve an updated set of restriction definitions relevant to the flight plan information; comparing , by the restriction management system, the updated set of restriction definitions to the initial set of restriction definitions; periodically repeating at least the re-querying and comparing actions at a rate that increases over time up to the planned flight period of time; and transmitting , by the restriction management system, a notification to the user device in response to detecting a difference between the updated set of restriction definitions and the initial set of restriction definitions.
A vertical clutch device for a timepiece, comprising along a vertical axis a first wheel rotatably mounted about said vertical axis , a clutch disc , a spring and a second wheel rotatably mounted about said vertical axis , said vertical clutch device being able to assume a clutched position where the second wheel is rotated by the first wheel under the action of the spring exerting a vertical force F e to press the clutch disc against the first wheel and a disengaged position where the clutch disc is subjected against the action of the spring to a vertical force F d separating it from the first wheel so that the second wheel is not rotated by the first wheel , said vertical clutch device being characterised in that the spring is made of a copper-based shape memory alloy, and in that this alloy is one of the alloys having, for a total percentage of 100% and a percentage of possible impurities less than or equal to 0.5%, the following composition by weight: - Cu between 64.5 and 85%, Zn between 9.5 and 25% and Al between 4.5 and 10%, - Cu between 79.5 and 84%, Al between 12.5 and 14% and Ni between 2.5 and 6%, - Cu between 87 and 88%, Al between 11 and 12% and Be between 0.3 and 0.7%. - Cu between 64.5 and 85%, Zn between 9.5 and 25% and Al between 4.5 and 10%, - Cu between 79.5 and 84%, Al between 12.5 and 14% and Ni between 2.5 and 6%, - Cu between 87 and 88%, Al between 11 and 12% and Be between 0.3 and 0.7%.
Rotor for a brushless electric machine, comprising a cylinder head , a motor magnet , and a piston , the motor magnet having an internal diameter DA, the cylinder head having an external diameter DC2, the piston having an external diameter DP, such that DA is greater than the diameters DC2 and DP, the motor magnet being bonded to the cylinder head and to the piston by an adhesive seal distributed between the diameters DA and DC2 and between DA and DP, the cylinder head having a plurality of diameters denoted DC1 at a first end, DC2 on the largest axial part and DC3 on a second end, a bead of the adhesive seal being placed on the cylinder head in the housing generated by the differences between the diameters DC1, DC2 and DA at the first end of the rotor, characterized in that DC3>DC2>DC1, in that the motor magnet is resting on the cylinder head on a surface defined by the difference between the diameters DC3 and DC2 of the cylinder head , the cylinder head is extended on its second end by a nose used to facilitate attaching the cylinder head on the shaft , and a coding magnet is bonded to the cylinder head on a reference surface orthogonal to the axis of rotation of the rotor and generated by the difference between the diameter DC3 and the external diameter of the nose used to attach the mechanical shaft to the cylinder head .