mhurhangee/ep-ind-claims huggingface dataset:
Method for reducing the turning circle of a road train (40, 41) which has at least two trailer vehicles, composed of a tractor vehicle with at least one front axle and at least one rear axle (3, 4) as well as with at least one trailer vehicle (12, 26, 31, 32, 33) with at least two rear axles (13, 14, 15; 29, 30), and with a device for automatically moving an axle load from the last rear axle (15; 30) to the at least one rear axle (13, 14; 29) arranged in front of the latter if cornering is detected, characterized in that in the case of a road train (40, 41) with at least two trailer vehicles (12, 26, 31, 32, 33) the radius of a bend which is currently being travelled along is determined, in that when the determined bend radius is smaller than a previously defined limiting bend radius a signal for moving an axle load from the last rear axle (15; 30) to the at least one rear axle (13, 14; 29) arranged in front of the latter, at least of the last trailer vehicle (12, 26, 31, 32, 33) is generated, and in that this signal is transmitted to a suitable activation device on this at least one rear axle (13, 14; 29) which is arranged in front of said last near axle, wherein when a limiting bend radius is undershot a signal to move an axle load from the last rear axle (15, 30) to the at least one rear axle (13, 14; 29) arranged in front of the latter of each trailer vehicle (12, 26, 31, 32, 33) is generated and is transmitted to the activation device of these rear axles (13, 29) which are arranged in front of said last rear axle.
Method for operating a reformer fuel cell assembly in a steady state, a state of negative load change or a state of positive load change, in which gaseous fuel is separated from the reformate of the reformer and supplied to the fuel cell in such a way that the reformate is at least partially supplied both to a first gas separator and to a second gas separator, wherein fuel separated by means of the first gas separator is supplied to a reservoir before it is supplied to the fuel cell and wherein fuel separated by means of the second gas separator is used for the continuous feeding of the fuel cell and wherein a hydrogen side of the first gas separator and a hydrogen side of the second gas separator are connected to one another by an equalizing valve, characterized in that in the state of negative load change, the fuel separated by means of the first gas separator is supplied to the reservoir with the equalizing valve closed and in the steady state and the state of positive load change, this supply of fuel to the reservoir does not occur or is reduced with the equalizing valve open.
A device for air-conditioning at least two adjacent carriages (14, 16, 18, 20) of a railway vehicle, comprising means for emitting a conditioned air flow and a network for circulating conditioned air, wherein the circulation network includes at least one first circuit for circulating conditioned air, intended to fit out a first carriage, said first circulation circuit including: - a first conditioned air inlet, through which passes an incoming airflow from the emission means, - at least one first conduit for distributing conditioned air towards a compartment from of said first carriage, extending from an upstream end, communicating with an air inlet, as far as a closed downstream end, the upstream and downstream ends being both intended for being laid out in said first carriage, - at least one first conduit for transferring conditioned air towards an adjacent second conditioned air circulation circuit, said second circulation circuit being intended to fit out a second carriage adjacent to the first, - first means for distributing conditioned air from the air inlet, able to distribute the incoming airflow among the distribution and transfer conduits, characterized in that the first circulation circuit includes a first central transfer conduit, and two first lateral distribution conduits laid out laterally on either side of the first transfer conduit. - a first conditioned air inlet, through which passes an incoming airflow from the emission means, - at least one first conduit for distributing conditioned air towards a compartment from of said first carriage, extending from an upstream end, communicating with an air inlet, as far as a closed downstream end, the upstream and downstream ends being both intended for being laid out in said first carriage, - at least one first conduit for transferring conditioned air towards an adjacent second conditioned air circulation circuit, said second circulation circuit being intended to fit out a second carriage adjacent to the first, - first means for distributing conditioned air from the air inlet, able to distribute the incoming airflow among the distribution and transfer conduits,
A parking interlock system of a vehicle, comprising: a safety state information detecting unit, configured to detect safety state information of the vehicle; an operating state information detecting unit, configured to detect operating state information of the vehicle; a brake; a motor; a low voltage controller, connected to the safety state information detecting unit and the brake respectively, and configured to generate a safety state judgment result based on the safety state information of the vehicle; and a motor controller, connected to the operating state information detecting unit and the motor respectively, and configured to receive the safety state judgment result from the low voltage controller, to control the motor according to the safety state judgment result, and to send the operating state information of the vehicle to the low voltage controller such that the low voltage controller controls the brake according to the operating state information of the vehicle, characterized in that the low voltage controller is further configured to control the brake to lock the vehicle at an end of a first predetermined period when a vehicle speed and a motor torque are determined to be zero during the first predetermined period. a safety state information detecting unit, configured to detect safety state information of the vehicle; an operating state information detecting unit, configured to detect operating state information of the vehicle; a brake; a motor; a low voltage controller, connected to the safety state information detecting unit and the brake respectively, and configured to generate a safety state judgment result based on the safety state information of the vehicle; and a motor controller, connected to the operating state information detecting unit and the motor respectively, and configured to receive the safety state judgment result from the low voltage controller, to control the motor according to the safety state judgment result, and to send the operating state information of the vehicle to the low voltage controller such that the low voltage controller controls the brake according to the operating state information of the vehicle, characterized in that the low voltage controller is further configured to control the brake to lock the vehicle at an end of a first predetermined period when a vehicle speed and a motor torque are determined to be zero during the first predetermined period.
A specimen test strip to detect a characteristic of an analyte in a specimen sample, comprising: a reaction area configured to receive the specimen sample; and a color calibration area (204, 304, 404, 504, 706) configured to determine a color of the reaction area after receiving the specimen sample; characterised in that the test strip further comprises: a path for the specimen sample, the path being defined by a capillary extending from a capillary entrance to the reaction area; a hole being defined through the capillary intermediate the capillary entrance and the reaction area; a top opening of the hole being covered by a first film, the first film being transparent; and a bottom opening of the hole being covered by a second film. a reaction area configured to receive the specimen sample; and a color calibration area (204, 304, 404, 504, 706) configured to determine a color of the reaction area after receiving the specimen sample; characterised in that the test strip further comprises: a path for the specimen sample, the path being defined by a capillary extending from a capillary entrance to the reaction area; a hole being defined through the capillary intermediate the capillary entrance and the reaction area; a top opening of the hole being covered by a first film, the first film being transparent; and a bottom opening of the hole being covered by a second film. a path for the specimen sample, the path being defined by a capillary extending from a capillary entrance to the reaction area; a hole being defined through the capillary intermediate the capillary entrance and the reaction area; a top opening of the hole being covered by a first film, the first film being transparent; and a bottom opening of the hole being covered by a second film.
An IP address allocation method, wherein the method comprises: receiving, by a relay device, a request packet sent by an address request device, wherein the request packet is used to request an IPv6 address; adding, by the relay device, an interface identifier to the request packet, forwarding the request packet comprising the interface identifier to an address allocation device, and receiving, by the relay device, a response packet that is sent by the address allocation device; the method characterised in that: the response packet comprises the IPv6 address, wherein the IPv6 address comprises the interface identifier; and the method further comprises: before the receiving, by the relay device, the request packet, the relay device negotiates the interface identifier with the address request device; and forwarding, by the relay device, the response packet to the address request device. receiving, by a relay device, a request packet sent by an address request device, wherein the request packet is used to request an IPv6 address; adding, by the relay device, an interface identifier to the request packet, forwarding the request packet comprising the interface identifier to an address allocation device, and receiving, by the relay device, a response packet that is sent by the address allocation device; the method characterised in that: the response packet comprises the IPv6 address, wherein the IPv6 address comprises the interface identifier; and the method further comprises: before the receiving, by the relay device, the request packet, the relay device negotiates the interface identifier with the address request device; and forwarding, by the relay device, the response packet to the address request device. the response packet comprises the IPv6 address, wherein the IPv6 address comprises the interface identifier; and the method further comprises: before the receiving, by the relay device, the request packet, the relay device negotiates the interface identifier with the address request device; and forwarding, by the relay device, the response packet to the address request device.
A method performed by an electronic device, having a display and a processor controlling an operating system to display content on the display, the content having an area larger than the display, the method comprising: performing operating system functions independent of one or more applications that provide the content, the operating system functions including: receiving a divide input comprising a tap on the display, to divide the display, wherein the display is a touch screen display; determining display coordinates corresponding to the divide input; and determining a first demarcation line based on the display coordinates. dividing the display into first and second display portions along the first demarcation line; dividing the content into first and second content portions; displaying at least part of the first content portion in the first display portion; displaying at least part of the second content portion in the second display portion; and after receiving a scrolling input, controlling scrolling of the first content portion to allow scrolling only in directions parallel to the demarcation line; and controlling scrolling of the second portion to allow scrolling in multiple directions. receiving a divide input comprising a tap on the display, to divide the display, wherein the display is a touch screen display; determining display coordinates corresponding to the divide input; and determining a first demarcation line based on the display coordinates. dividing the display into first and second display portions along the first demarcation line; dividing the content into first and second content portions; displaying at least part of the first content portion in the first display portion; displaying at least part of the second content portion in the second display portion; and after receiving a scrolling input, controlling scrolling of the first content portion to allow scrolling only in directions parallel to the demarcation line; and controlling scrolling of the second portion to allow scrolling in multiple directions.
A two-motor vehicle-driving apparatus comprising two electric motors (1L, 1R) for driving a left and a right wheel respectively; and two speed reducers (2L, 2R) for reducing motor rotation of the respective electric motors (1L, 1R); the two electric motors (1L, 1R) being disposed at locations closer to the respective wheels relative to the speed reducers (2L, 2R), wherein a motor shaft of the electric motor (1L, 1R) has an axial-through hollow structure; the motor shaft is provided with an input gear integrally therewith at its end closer to the speed reducer (2L, 2R), with an output shaft provided inside the hollow motor shaft coaxially therewith; characterized in that the output shaft has an output gear integrally therewith at its end closer to the speed reducer (2L, 2R); the speed reducer (2L, 2R) is provided with one or more intermediate shafts rotatably in parallel with the motor shaft and the output shaft; the intermediate shaft is provided with a plurality of gears (24a, 24b) integrally therewith for engagement with the input gear of the motor shaft and with the output gear of the output shaft to transmit rotation of the motor shaft to the output shaft at a reduced speed.
A copolyester, co-polyesterpolycarbonate or co-polyesterpolyether copolymer comprising either differing polyester units, or comprising polyester units and polycarbonate or polyether units or both, and optionally further comprising one or more coupling agents, and being characterized by having polymerized units of one or more aromatic diacid monomer; from 10 mole % to 40 mole % of the sum of polymerized units of one or more aliphatic diols where the mole % is the sum of the moles of polymerized units of the one or more aliphatic diols in the copolymer expressed as a percentage of the total moles of polymerized units that make up the copolymer; a primary Tg between 85 °C and 125 °C as measured from the inflection point on second heatup of the DSC curve using a heating/cooling rate of 10°C/min; and a heat of melting ΔH m peak no greater than 10 J/g after exposure to hydrostatic pressure of 6895 kPa (1000 psi) CO 2 at 135 °C for 4 hours. polymerized units of one or more aromatic diacid monomer; from 10 mole % to 40 mole % of the sum of polymerized units of one or more aliphatic diols where the mole % is the sum of the moles of polymerized units of the one or more aliphatic diols in the copolymer expressed as a percentage of the total moles of polymerized units that make up the copolymer; a primary Tg between 85 °C and 125 °C as measured from the inflection point on second heatup of the DSC curve using a heating/cooling rate of 10°C/min; and a heat of melting ΔH m peak no greater than 10 J/g after exposure to hydrostatic pressure of 6895 kPa (1000 psi) CO 2 at 135 °C for 4 hours.
A high-position robot, comprising a pallet fork, an image collector, and a processing adjusting and control module, the processing adjusting and control module being separately connected with the pallet fork and the image collector electrically, wherein the pallet fork comprises a first pallet fork and a second pallet fork configured to carry a storage container to be placed; characterized in that the high-position robot further comprises a distance sensor, and the processing adjusting and control module is connected with the distance sensor electrically, wherein the image collector is arranged on the first pallet fork and configured to collect positioning information provided on a target stock container to obtain image data that can represent a positional relationship between the pallet fork and a projection image of the positioning information on a specified plane; the distance sensor is arranged on the second pallet fork and configured to measure a distance between the pallet fork and the target stock container and obtain distance data; and the processing adjusting and control module is configured to adjust and control the positional relationship between the pallet fork and the projection image of the positioning information on the specified plane according to the image data after the pallet fork lifts the storage container to be placed up to a same height as a target layer of the target stock container; and to adjust and control the distance between the pallet fork and the target stock container according to the distance data. wherein the pallet fork comprises a first pallet fork and a second pallet fork configured to carry a storage container to be placed; characterized in that the high-position robot further comprises a distance sensor, and the processing adjusting and control module is connected with the distance sensor electrically, wherein the image collector is arranged on the first pallet fork and configured to collect positioning information provided on a target stock container to obtain image data that can represent a positional relationship between the pallet fork and a projection image of the positioning information on a specified plane; the distance sensor is arranged on the second pallet fork and configured to measure a distance between the pallet fork and the target stock container and obtain distance data; and the processing adjusting and control module is configured to adjust and control the positional relationship between the pallet fork and the projection image of the positioning information on the specified plane according to the image data after the pallet fork lifts the storage container to be placed up to a same height as a target layer of the target stock container; and to adjust and control the distance between the pallet fork and the target stock container according to the distance data.
A method for preparing a surface of a YAG crystal for thermal bonding, the method comprising: i) performing an ion implantation process to introduce nitrogen into a mating surface layer of the YAG crystal, wherein the mating surface layer of the YAG crystal is an amorphous polished surface layer, to replace depleted oxygen therein so as to activate the mating surface layer of the YAG crystal, and to perturb and change a surface potential of the mating surface layer; ii) metallizing the ion implanted mating surface layer, wherein the ion implanted mating surface layer provides desired wettability, adhesion, and surface void characteristics to provide efficient interfacial heat transfer between the YAG crystal and a thermal management device; and iii) joining the metallized ion implanted mating surface layer with the thermal management device, the thermal management device configured to dissipate heat from the YAG crystal. i) performing an ion implantation process to introduce nitrogen into a mating surface layer of the YAG crystal, wherein the mating surface layer of the YAG crystal is an amorphous polished surface layer, to replace depleted oxygen therein so as to activate the mating surface layer of the YAG crystal, and to perturb and change a surface potential of the mating surface layer; ii) metallizing the ion implanted mating surface layer, wherein the ion implanted mating surface layer provides desired wettability, adhesion, and surface void characteristics to provide efficient interfacial heat transfer between the YAG crystal and a thermal management device; and iii) joining the metallized ion implanted mating surface layer with the thermal management device, the thermal management device configured to dissipate heat from the YAG crystal.
An affordance for an item to be grasped by a robot system, the robot system comprising an end effector and configured, in use, to move the item; the affordance comprising: a first layer arranged to be grasped by the end effector; and a second layer arranged to adhere to the item, characterised in that the first layer comprises a structure with at least two substantially parallel surfaces, and that the first layer further comprises an indicator arranged to indicate to the robot system to grasp the item by way of the affordance. a first layer arranged to be grasped by the end effector; and a second layer arranged to adhere to the item, characterised in that the first layer comprises a structure with at least two substantially parallel surfaces, and that the first layer further comprises an indicator arranged to indicate to the robot system to grasp the item by way of the affordance.
A liftgate with integrated light assembly (212,312,412,512,612) comprising: at least one outer panel (216,316,416,516,616) coupled to at least one inner panel (214,314,414,514,614); a rear lamp applique assembly (210,310,410,510,610) connected to said outer panel (216,316,416,516,616); a housing (220,356,428,528,626) of said rear lamp applique (210,310,410,510,610) including at least one first attachment surface; a second attachment surface provided on said at least one outer panel (216,316,416,516,616) conforming to said at least one first attachment surface, at least one reflector (222,372,440,540) of said rear lamp applique (210,310,410,510,610) connected to said housing (220,356,428,528,626); at least one lighting source (238,364,438,538) of said rear lamp applique (210,310,410,510,610) operably coupled to said at least one reflector (222,372,440,540); at least one self-sealing connector (230,350,420,520,634) operable to connect a wire harness (236,351,421,521) to said housing (220,356,428,528,626) of said rear lamp applique (210,310,410,510,610) and creating a weather resistant seal without gaskets between said rear lamp applique (210,310,410,510,610) and said outer panel (216,316,416,516,616). at least one outer panel (216,316,416,516,616) coupled to at least one inner panel (214,314,414,514,614); a rear lamp applique assembly (210,310,410,510,610) connected to said outer panel (216,316,416,516,616); a housing (220,356,428,528,626) of said rear lamp applique (210,310,410,510,610) including at least one first attachment surface; a second attachment surface provided on said at least one outer panel (216,316,416,516,616) conforming to said at least one first attachment surface, at least one reflector (222,372,440,540) of said rear lamp applique (210,310,410,510,610) connected to said housing (220,356,428,528,626); at least one lighting source (238,364,438,538) of said rear lamp applique (210,310,410,510,610) operably coupled to said at least one reflector (222,372,440,540); at least one self-sealing connector (230,350,420,520,634) operable to connect a wire harness (236,351,421,521) to said housing (220,356,428,528,626) of said rear lamp applique (210,310,410,510,610) and creating a weather resistant seal without gaskets between said rear lamp applique (210,310,410,510,610) and said outer panel (216,316,416,516,616).