mhurhangee/ep-ind-claims huggingface dataset:
An electrical junction box (10, 50, 70) comprising: a casing (11, 51, 71); and an electrical component that is accommodated in the casing (11, 51, 71) and has an electrical component case and a terminal portion, the terminal portion being accommodated in the electrical component case and having a contact (FC, MC), wherein the terminal portion includes, as the contact (FC, MC), at least a fixed contact and a movable contact that can be brought into contact with or separated from the fixed contact, wherein a small heat amount-generating region (31, 63, 83) that generates a smaller amount of heat than the electrical component does when current flows through the electrical component is formed in the casing (11, 51, 71), and the electrical component is disposed in such an attitude that the contact (FC, MC), is located on the small heat amount-generating region side. a casing (11, 51, 71); and an electrical component that is accommodated in the casing (11, 51, 71) and has an electrical component case and a terminal portion, the terminal portion being accommodated in the electrical component case and having a contact (FC, MC), wherein the terminal portion includes, as the contact (FC, MC), at least a fixed contact and a movable contact that can be brought into contact with or separated from the fixed contact, wherein a small heat amount-generating region (31, 63, 83) that generates a smaller amount of heat than the electrical component does when current flows through the electrical component is formed in the casing (11, 51, 71), and the electrical component is disposed in such an attitude that the contact (FC, MC), is located on the small heat amount-generating region side.
Method for manufacturing and testing microfluidic chips having at least one capillary for through-flow of a fluid, characterized by the steps of: - providing a starting material; - forming at least one shared capillary in the starting material; - arranging a plurality of functional elements in or over the shared capillary, thus forming a plurality of chips; - testing the chips by supplying a test fluid to the shared capillary, and - dividing the starting material into separate chips. - providing a starting material; - forming at least one shared capillary in the starting material; - arranging a plurality of functional elements in or over the shared capillary, thus forming a plurality of chips; - testing the chips by supplying a test fluid to the shared capillary, and - dividing the starting material into separate chips.
Device for energy supply of a lamp, wherein there is potential separation between a primary side and a secondary side (8, 70, 90) of the device, wherein the primary side comprises at least one switch (21, 22) and a control means, wherein the control means are designed to cause a clocked switching of the at least one switch (21,22) in an operating phase, characterized in that, the device is configurable in order to be used for different lamps, wherein a configuration is selectable through a resistance on the secondary side (8, 70, 90) of the device, and the control device is designed to cause the clocked switching of the at least one switch (21, 22) in the operating phase, in order to detect a configuration specified through the resistance as a function of a measured variable (isns), which is a function of the resistance on the primary side, during the operating phase, the device is contolled as a function of the detected specified configuration in a further operating phase.
A method of saccharifying a composition comprising starch to produce a composition comprising glucose, wherein said method comprises: (i) contacting a starch composition with an Aspergillus fumigatus glucoamylase (AfGATR), or a variant thereof, comprising an amino acid sequence having at least 90% amino acid sequence identity to amino acids 1 to 612 of SEQ ID NOs: 12 (AfGA1TR) or 13 (AfGA2TR), wherein the AfGATR, or variant thereof, is expressed in a Trichoderma reesei host cell; and (ii) saccharifying the starch composition to produce said glucose composition; wherein the AfGATR, or variant thereof, catalyzes the saccharification of the composition comprising starch to a composition comprising glucose enriched in DP1 compared to a second composition comprising DP1 produced by Aspergillus niger glucoamylase (AnGA) after 24 hours of saccharification under the same conditions; and wherein said AfGATR, or variant thereof, has at least 70% activity at 74°C at pH 5.0 over 10 min. (i) contacting a starch composition with an Aspergillus fumigatus glucoamylase (AfGATR), or a variant thereof, comprising an amino acid sequence having at least 90% amino acid sequence identity to amino acids 1 to 612 of SEQ ID NOs: 12 (AfGA1TR) or 13 (AfGA2TR), wherein the AfGATR, or variant thereof, is expressed in a Trichoderma reesei host cell; and (ii) saccharifying the starch composition to produce said glucose composition;
A method of maneuvering a vehicle having an autonomous driving mode, the method comprising: identifying, by one or more processors, a pullover location for the vehicle to stop and wait for a passenger; maneuvering, by the one or more processors, the vehicle in the autonomous driving mode in order to pull over by pulling forward into the pullover location; determining, by the one or more processors, whether to maneuver the vehicle in reverse in the pullover location before or after the passenger enters the vehicle based on context for the pull over with respect to the passenger; and maneuvering, by the one or more processors, the vehicle in the autonomous driving mode in reverse based on the determination of whether to maneuver the vehicle in reverse in the pullover location before or after the passenger enters the vehicle, wherein the determination of whether of maneuver the vehicle in reverse in the pullover location before or after the passenger enters the vehicles is based on: determining the context by determining an expected amount of time for the passenger to reach the vehicle once the vehicle is ready to be maneuvered in reverse in the pullover location; and comparing the expected amount of time to a threshold value. identifying, by one or more processors, a pullover location for the vehicle to stop and wait for a passenger; maneuvering, by the one or more processors, the vehicle in the autonomous driving mode in order to pull over by pulling forward into the pullover location; determining, by the one or more processors, whether to maneuver the vehicle in reverse in the pullover location before or after the passenger enters the vehicle based on context for the pull over with respect to the passenger; and maneuvering, by the one or more processors, the vehicle in the autonomous driving mode in reverse based on the determination of whether to maneuver the vehicle in reverse in the pullover location before or after the passenger enters the vehicle, wherein the determination of whether of maneuver the vehicle in reverse in the pullover location before or after the passenger enters the vehicles is based on: determining the context by determining an expected amount of time for the passenger to reach the vehicle once the vehicle is ready to be maneuvered in reverse in the pullover location; and comparing the expected amount of time to a threshold value. determining the context by determining an expected amount of time for the passenger to reach the vehicle once the vehicle is ready to be maneuvered in reverse in the pullover location; and comparing the expected amount of time to a threshold value.
A composition filled with actinide powder comprising an organic matrix and an actinide powder or a mixture of actinide powders, characterised in that it comprises at least: - one plasticiser comprising an alkane, the longest radical chain of which comprises at least several tens of carbon atoms, and having volume content between 20% and 70% of the total volume of the organic compounds alone; - a binder comprising at least one aromatic polymer and/or polymethyl methacrylate capable of limiting the radiolysis effects and having volume content between 20% and 50% of the total volume of the organic compounds alone; - a disperser comprising a carboxylic acid or salts thereof, the volume content of which is less than 10% of the total volume of the organic compounds alone; - said actinide powder or said mixture of actinide powders representing between 40% and 65% of the volume of the filled matrix. - one plasticiser comprising an alkane, the longest radical chain of which comprises at least several tens of carbon atoms, and having volume content between 20% and 70% of the total volume of the organic compounds alone; - a binder comprising at least one aromatic polymer and/or polymethyl methacrylate capable of limiting the radiolysis effects and having volume content between 20% and 50% of the total volume of the organic compounds alone; - a disperser comprising a carboxylic acid or salts thereof, the volume content of which is less than 10% of the total volume of the organic compounds alone; - said actinide powder or said mixture of actinide powders representing between 40% and 65% of the volume of the filled matrix.
An indoor unit of an air-conditioning apparatus, comprising a main body and a mounting plate, the indoor unit being configured to be installed on a wall surface by fixing the indoor unit to the wall surface by hooking a back face of the main body of the indoor unit to the mounting plate mounted on the wall surface, such that a lower part of the indoor unit may be raised in a direction away from the wall surface and the mounting plate, the main body including a back case shaped like a box and provided with an open front face, and a front case joined to the front face of the back case, characterised in that a bottom face of the front case has a step formed thereon, configured for hooking fingers and/or configured for mounting a tool for installation when the indoor unit is raised, the step being formed at a location away from a joining portion between a bottom face of the back case and the bottom face of the front case, the step protruding downward, wherein a height of the step is between 4 mm and 10 mm, both inclusive, and wherein the step is formed at a location 10 mm or more away from the joining portion. a back case shaped like a box and provided with an open front face, and a front case joined to the front face of the back case, characterised in that a bottom face of the front case has a step formed thereon, configured for hooking fingers and/or configured for mounting a tool for installation when the indoor unit is raised, the step being formed at a location away from a joining portion between a bottom face of the back case and the bottom face of the front case, the step protruding downward, wherein a height of the step is between 4 mm and 10 mm, both inclusive, and wherein the step is formed at a location 10 mm or more away from the joining portion.
A method performed at a user equipment, the method comprising: receiving a cyclic redundancy check protected uplink resource allocation message, the uplink resource allocation message comprising a New Data Indicator, NDI, specifying whether the resource allocation is intended for a first transmission of data or retransmission of the data; and retransmitting the data in response to the received uplink resource allocation message comprising the NDI specifying that the resource allocation is intended for retransmission of the data, wherein the resource allocation message is generated according to a dynamic scheduling scheme for a retransmission of the data. receiving a cyclic redundancy check protected uplink resource allocation message, the uplink resource allocation message comprising a New Data Indicator, NDI, specifying whether the resource allocation is intended for a first transmission of data or retransmission of the data; and retransmitting the data in response to the received uplink resource allocation message comprising the NDI specifying that the resource allocation is intended for retransmission of the data, wherein the resource allocation message is generated according to a dynamic scheduling scheme for a retransmission of the data.
A parthenocarpic tomato plant having a mutant cyclin F-box gene that confers parthenocarpy in tomato and encodes an amino acid sequence having 95% or more sequence identity to the amino acid sequence of SEQ ID NO: 2 and comprising a substitution of proline at position 398 defined based on the cyclin F-box protein amino acid sequence of SEQ ID NO: 2 by glutamine.
Cleaning appliance, in particular a floor-cleaning appliance, comprising a cleaning roller that is rotatable about an axis of rotation (x) for treating a surface to be cleaned, the cleaning roller being designed at least in part as a liquid-permeable hollow body comprising an interior liquid chamber, the hollow body comprising openings for the outflow of liquid from the liquid chamber to the surface of the hollow body, characterised in that the cleaning roller is designed to block an outflow of liquid from the liquid chamber below a minimum speed of rotation (n min) determined by an equilibrium of forces between a capillary force (F K) and a centrifugal force (F Z) that act on the liquid and to release an outflow of liquid from the liquid chamber when the minimum speed of rotation (n min) is reached, and in that a contact angle (θ) between the liquid and an inner wall of the opening is greater than 90° and up to 270°.
A device for ablating duodenal mucosal tissue of a patient with a delivered fluid, comprising: an elongate shaft having a proximal portion and a distal portion; at least one expandable assembly positioned on the elongate shaft distal portion, the expandable assembly comprising at least one centering element positioned on the external surface of the expandable assembly; and first and second fluid delivery elements (145a; 145b; 145c) positioned proximate the elongate shaft distal portion, wherein the first fluid delivery element is configured to deliver ablative fluid to target tissue, wherein the ablative fluid comprises heated fluid, and wherein the second fluid delivery element is configured to deliver a cooling fluid to the target, thereby enabling ablation of duodenal mucosal tissue while avoiding damaging duodenal adventitial tissue, wherein the at least one centering element is constructed and arranged to position the fluid delivery elements at a fixed distance from the target tissue. an elongate shaft having a proximal portion and a distal portion; at least one expandable assembly positioned on the elongate shaft distal portion, the expandable assembly comprising at least one centering element positioned on the external surface of the expandable assembly; and first and second fluid delivery elements (145a; 145b; 145c) positioned proximate the elongate shaft distal portion, wherein the first fluid delivery element is configured to deliver ablative fluid to target tissue, wherein the ablative fluid comprises heated fluid, and wherein the second fluid delivery element is configured to deliver a cooling fluid to the target, thereby enabling ablation of duodenal mucosal tissue while avoiding damaging duodenal adventitial tissue, wherein the at least one centering element is constructed and arranged to position the fluid delivery elements at a fixed distance from the target tissue.
An elbow prosthesis comprising: a humeral component comprising a humeral stem and a yoke having first and second ears (124, 126) extending from a base of the yoke; a humeral bearing positionable in the base of the yoke; an ulnar component comprising an ulnar stem and an ulnar head; a first ulnar bearing positionable between the first ear of the yoke and the ulnar head; a second ulnar bearing positionable between the second ear of the yoke and the ulnar head; a pin having a first end portion and a second end portion and configured to extend through the ulnar head, the first ulnar bearing and the second ulnar bearing, wherein the first end portion of the pin is configured to extend into the first ear of the yoke and the second end portion of the pin is configured to extend into the second ear of the yoke, and wherein the ulnar component is configured to pivot about the pin to enable movement of the ulnar component relative to the humeral component; a first fastener insertable through at least a portion of the first ear of the yoke for engaging with the first end portion of the pin; and a second fastener insertable through at least a portion of the second ear of the yoke for engaging with the second end portion of the pin. a humeral component comprising a humeral stem and a yoke having first and second ears (124, 126) extending from a base of the yoke; a humeral bearing positionable in the base of the yoke; an ulnar component comprising an ulnar stem and an ulnar head; a first ulnar bearing positionable between the first ear of the yoke and the ulnar head; a second ulnar bearing positionable between the second ear of the yoke and the ulnar head; a pin having a first end portion and a second end portion and configured to extend through the ulnar head, the first ulnar bearing and the second ulnar bearing, wherein the first end portion of the pin is configured to extend into the first ear of the yoke and the second end portion of the pin is configured to extend into the second ear of the yoke, and wherein the ulnar component is configured to pivot about the pin to enable movement of the ulnar component relative to the humeral component; a first fastener insertable through at least a portion of the first ear of the yoke for engaging with the first end portion of the pin; and a second fastener insertable through at least a portion of the second ear of the yoke for engaging with the second end portion of the pin.
A transgenic CFTR-/- (knock-out) pig that has a symptom of cystic fibrosis, whose genome has a homozygous mutation in a cystic fibrosis membrane transporter (CFTR) gene, and wherein the said mutation is a CFTR-null mutation comprising targeted disruption of exon 10 of the CFTR gene.
Process for the manufacture, by deposition on an ion-conducting and electron-insulating membrane (12, 34, 42), of carbon electrodes for the purpose of producing a fuel cell, characterized in that: - the process comprises the stages of depositing, by plasma sputtering in a vacuum chamber, porous carbon and a catalyst on the membrane (12, 34, 42), the catalyst being used to accelerate at least one of the chemical reactions taking place in the fuel cell, - the stages of deposition of the layers of porous carbon and of the catalyst are carried out alternately, - the thickness of each layer of porous carbon is chosen so that the catalyst deposited on this layer of carbon is diffused throughout this layer, thus creating a layer of catalysed carbon, and the total thickness of catalysed carbon in the electrode being at most equal to 1 micrometre, - the presence of separate layers is due to successive sputtering operations, and in that: the amounts of catalyst deposited are such that the ratio of the number of catalyst atoms to the number of carbon atoms present in the layer of catalysed carbon closest to the membrane of the fuel cell is more than ten times greater than the ratio of the number of catalyst atoms to the number of carbon atoms present in the layer of catalysed carbon furthest from this membrane. - the process comprises the stages of depositing, by plasma sputtering in a vacuum chamber, porous carbon and a catalyst on the membrane (12, 34, 42), the catalyst being used to accelerate at least one of the chemical reactions taking place in the fuel cell, - the stages of deposition of the layers of porous carbon and of the catalyst are carried out alternately, - the thickness of each layer of porous carbon is chosen so that the catalyst deposited on this layer of carbon is diffused throughout this layer, thus creating a layer of catalysed carbon, and the total thickness of catalysed carbon in the electrode being at most equal to 1 micrometre, - the presence of separate layers is due to successive sputtering operations, the amounts of catalyst deposited are such that the ratio of the number of catalyst atoms to the number of carbon atoms present in the layer of catalysed carbon closest to the membrane of the fuel cell is more than ten times greater than the ratio of the number of catalyst atoms to the number of carbon atoms present in the layer of catalysed carbon furthest from this membrane.
An aircraft wing, comprising: an outer aircraft skin including an upper skin portion and a lower skin portion defining a chamber therebetween; and a wing spar extending some length of the wing and being positioned within the chamber, said wing spar including an upper spar cap coupled to an inside surface of the upper skin portion, a lower spar cap coupled to an inside surface of the lower skin portion, and a web formed to the upper and lower spar caps (38, 40), wherein the upper spar cap is configured in a manner that causes it to have built-in tension so that compression forces on the upper skin portion during flight operate to reduce the tension in the upper spar cap, wherein the upper spar cap is configured to have a higher coefficient of thermal expansion, CTE, than the web to provide the built-in tension, wherein both the upper and lower spar caps (38, 40) have a higher CTE than the web to provide built-in tension in both the upper and lower spar caps (38, 40), wherein the wing spar is made of a graphite composite that is thermally cured, and wherein a different ply lay-up schedule is used for the web than a ply lay-up schedule for the spar caps (38, 40) where a fiber direction of the web plies is configured to have a CTE near zero and the spar cap plies are configured to have a higher CTE. an outer aircraft skin including an upper skin portion and a lower skin portion defining a chamber therebetween; and a wing spar extending some length of the wing and being positioned within the chamber, said wing spar including an upper spar cap coupled to an inside surface of the upper skin portion, a lower spar cap coupled to an inside surface of the lower skin portion, and a web formed to the upper and lower spar caps (38, 40), wherein the upper spar cap is configured in a manner that causes it to have built-in tension so that compression forces on the upper skin portion during flight operate to reduce the tension in the upper spar cap, wherein the upper spar cap is configured to have a higher coefficient of thermal expansion, CTE, than the web to provide the built-in tension, wherein both the upper and lower spar caps (38, 40) have a higher CTE than the web to provide built-in tension in both the upper and lower spar caps (38, 40), wherein the wing spar is made of a graphite composite that is thermally cured, and wherein a different ply lay-up schedule is used for the web than a ply lay-up schedule for the spar caps (38, 40) where a fiber direction of the web plies is configured to have a CTE near zero and the spar cap plies are configured to have a higher CTE.