mhurhangee/ep-ind-claims huggingface dataset:
A removal drive device mounted on a vehicle and configured to drive a foreign matter removal device which is configured to remove attached foreign matters, the removal drive device comprising: a first terminal connected to a power supply line in the vehicle; a second terminal connected to a ground line in the vehicle; a motor driver configured to supply driving current to a motor of the foreign matter removal device and to enable the foreign matter removal device to execute a foreign matter removal operation, and an operation setting unit configured to instruct the motor driver to supply the driving current for a first predetermined time (td) as a power supply voltage is applied to the first terminal at a state where the second terminal is connected to a ground; characterized in that: the operation setting unit is configured to control the motor driver not to supply the driving current for a second predetermined time (tm) after the power supply voltage is applied to the first terminal at the state where the second terminal is connected to the ground. a first terminal connected to a power supply line in the vehicle; a second terminal connected to a ground line in the vehicle; a motor driver configured to supply driving current to a motor of the foreign matter removal device and to enable the foreign matter removal device to execute a foreign matter removal operation, and an operation setting unit configured to instruct the motor driver to supply the driving current for a first predetermined time (td) as a power supply voltage is applied to the first terminal at a state where the second terminal is connected to a ground; characterized in that: the operation setting unit is configured to control the motor driver not to supply the driving current for a second predetermined time (tm) after the power supply voltage is applied to the first terminal at the state where the second terminal is connected to the ground.
A sealed joint for a turbine engine exhaust nozzle, comprising: a first plate comprising a seal land; a second plate that moves relative to the seal land; and a seal connected to the second plate, the seal extending laterally between a first seal end and a second seal end, and comprising a plurality of seal elements (60, 62) that extend longitudinally between a first seal side and a second seal side, characterised in that: a first of the plurality of seal elements extends laterally from the first seal end towards a first seal segment that is separated from the second plate by an airflow channel, and a second of the plurality of seal elements extends laterally from the second seal end towards a second seal segment that is located between and engaged with the first seal segment and the seal land; the first of the plurality of seal elements further comprises a first base segment that extends laterally from the first seal end towards the first seal segment, and is connected to the second plate; and the second of the plurality of seal elements further comprises a second base segment that extends laterally from the second seal end towards the second seal segment, and is connected to the second plate. a first plate comprising a seal land; a second plate that moves relative to the seal land; and a seal connected to the second plate, the seal extending laterally between a first seal end and a second seal end, and comprising a plurality of seal elements (60, 62) that extend longitudinally between a first seal side and a second seal side, characterised in that: a first of the plurality of seal elements extends laterally from the first seal end towards a first seal segment that is separated from the second plate by an airflow channel, and a second of the plurality of seal elements extends laterally from the second seal end towards a second seal segment that is located between and engaged with the first seal segment and the seal land; the first of the plurality of seal elements further comprises a first base segment that extends laterally from the first seal end towards the first seal segment, and is connected to the second plate; and the second of the plurality of seal elements further comprises a second base segment that extends laterally from the second seal end towards the second seal segment, and is connected to the second plate. a first of the plurality of seal elements extends laterally from the first seal end towards a first seal segment that is separated from the second plate by an airflow channel, and a second of the plurality of seal elements extends laterally from the second seal end towards a second seal segment that is located between and engaged with the first seal segment and the seal land; the first of the plurality of seal elements further comprises a first base segment that extends laterally from the first seal end towards the first seal segment, and is connected to the second plate; and the second of the plurality of seal elements further comprises a second base segment that extends laterally from the second seal end towards the second seal segment, and is connected to the second plate.
Damping device for mounting two separate components for damping oscillations between the components, wherein the damping device has an axial damper that comprises a first connecting element as well as a second connecting element, wherein the first connecting element is connected to the second connecting element by a damping section by allowing an axial relative movement of the two connecting elements with respect to one another, wherein the damping section is designed for damping the axial relative movement between the connecting elements, characterized in that the damping device comprises a bending joint that is fastened to one of the connecting elements, wherein the bending joint has a mounting element for mounting on one of the components, wherein the bending joint has a joint section that is designed as a continuous rigidly interconnected component and that extends axially between the connecting element fixed to the bending joint and the mounting element, wherein the bending joint can be resiliently bent in its joint section about at least one axis of rotation that is perpendicular to the axial direction, wherein the joint section has at least one axial bending section (12, 14) that is associated to exactly one axis of rotation perpendicularly to the axial direction and that remains rigid with respect to a bending stress that is exerted on itself by a relative force applied at its axial ends with a direction of force along its axis of rotation, wherein the bending section has a shape in the manner of a plate, the planar extension of which is fixed by the axial direction and by the axis of rotation associated thereto, wherein the bending section has a length of extension in a direction perpendicular to the axial direction and perpendicular to the axis of rotation associated to the bending section that is less than 5% of the axial length of extension of the bending section and wherein the bending section has a length of extension along its associated axis of rotation that is at least four times bigger than the length of extension of the bending section in the direction that is perpendicular to its associated axis of rotation and perpendicular to the axial direction, wherein the joint section of the bending joint is made from full material.
Device comprising at least one lane (10, 18a, 18b, 18c) and at least one aircraft able to move along said at least one lane, characterized in that the at least one aircraft is secured to a tractor element comprising a magnetic mass formed mainly with a type II superconductor and in that the at least one lane (10, 18a, 18b, 18c) comprises stator coils built into said at least one lane, arranged in at least one line of coils parallel to an axis of said at least one lane, the device comprising a command/control system which powers said stator coils in such a way as to create a magnetic field that causes the at least one tractor element, previously magnetized into a phase II superconducting state, to levitate above said at least one lane.
A compound of formula or a pharmaceutically acceptable salt thereof wherein R 1 is selected from the group consisting of R 2 is selected from the group consisting of H, -CH 3, -CH=CH 2, -CH 2 -CH 3, - CH 2 CH 2 CH 3, R 3 is selected from the group consisting of H, -OH, -NH 2.
A system for printing pressure sensitive adhesive on a substrate, comprising: a rigid support structure; and a plurality of dispensing heads disposed within the rigid support structure and configured to deposit PSA solution on the substrate in response to applied pressure, wherein each dispensing head of the plurality of dispensing heads comprises: a support structure; and a wicking structure disposed within the support structure and configured to hold the PSA solution, wherein the wicking structure is configured to deposit the PSA solution in a desired shape on the substrate upon contact with the substrate; the system is characterised in that it further comprises at least one pressure sensor disposed within the rigid support structure and a controller coupled to the at least one pressure sensor, wherein the controller is configured to control an amount of pressure applied by the rigid support structure on the substrate based on feedback from the at least one pressure sensor. a rigid support structure; and a plurality of dispensing heads disposed within the rigid support structure and configured to deposit PSA solution on the substrate in response to applied pressure, wherein each dispensing head of the plurality of dispensing heads comprises: a support structure; and a wicking structure disposed within the support structure and configured to hold the PSA solution, wherein the wicking structure is configured to deposit the PSA solution in a desired shape on the substrate upon contact with the substrate; a support structure; and a wicking structure disposed within the support structure and configured to hold the PSA solution, wherein the wicking structure is configured to deposit the PSA solution in a desired shape on the substrate upon contact with the substrate; the system is characterised in that it further comprises at least one pressure sensor disposed within the rigid support structure and a controller coupled to the at least one pressure sensor, wherein the controller is configured to control an amount of pressure applied by the rigid support structure on the substrate based on feedback from the at least one pressure sensor.
A terminal comprising: a transmitting and receiving section configured to receive, via higher layer signalling, a physical uplink control channel, PUCCH, resource configuration and to transmit a PUCCH, said PUCCH resource configuration comprising: a parameter indicating that intra-slot frequency hopping is enabled, a parameter indicating a starting physical resource block, PRB, that is a first PRB in a first hop, and a parameter indicating a second hop PRB that is a first PRB in a second hop; said terminal further comprising: a control section configured to control transmission of said PUCCH and to use, in a case where the PUCCH resource configuration indicates that intra-slot frequency hopping is enabled and the second hop PRB is equal to the starting PRB in a frequency direction, different base sequences for transmitting said PUCCH between the first hop and the second hop. a transmitting and receiving section configured to receive, via higher layer signalling, a physical uplink control channel, PUCCH, resource configuration and to transmit a PUCCH, said PUCCH resource configuration comprising: a parameter indicating that intra-slot frequency hopping is enabled, a parameter indicating a starting physical resource block, PRB, that is a first PRB in a first hop, and a parameter indicating a second hop PRB that is a first PRB in a second hop; a parameter indicating that intra-slot frequency hopping is enabled, a parameter indicating a starting physical resource block, PRB, that is a first PRB in a first hop, and a parameter indicating a second hop PRB that is a first PRB in a second hop; said terminal further comprising: a control section configured to control transmission of said PUCCH and to use, in a case where the PUCCH resource configuration indicates that intra-slot frequency hopping is enabled and the second hop PRB is equal to the starting PRB in a frequency direction, different base sequences for transmitting said PUCCH between the first hop and the second hop.
Sensor arrangement for determining a fill level of a liquid contained in a tank, in particular a reducing agent for removing nitrogen oxide from exhaust gases of an internal combustion engine, in which at least two electrically conductive measuring electrodes (14, 16) for fill level measurement are partly embedded in a carrier (8, 32) of electrically nonconductive material, and a temperature sensor, in particular an electric resistor with a negative temperature coefficient serving as a temperature sensor, is integrated in the carrier, characterized in that the temperature sensor is arranged in the interior of the carrier and is located in a tubular region which is connected in one piece to a covering region, by means of which the measuring electrodes (14, 16) are sealed off on one side against actions of the liquid, wherein the covering region, formed as a spray-coated covering region, is connected in one piece to material which locks the temperature sensor in a highly thermally conductive manner within the carrier, wherein the carrier is produced by primary spray-coating of the measuring electrodes (14, 16) with the electrically nonconductive material, wherein the one-piece connection of the spray-coated covering region with the material is carried out by the spray-coated covering region being produced in a secondary spray-coating following thereon.
Starting device, in particular a starter, for starting an internal combustion engine, at least comprising a freewheel gearbox, in which an axial movement of an inner part is limited by a retaining disc acting as a stop, and in which a guide disc is arranged axially between a front geometry of the retaining disc and a front geometry of an outer part orientated towards the front geometry of the retaining disc, wherein the guide disc is arranged at least partially recessed in at least one recess in at least one of the front geometries (121, 200), characterized in that the guide disc is arranged completely in the recess at least in axial direction, so that the front geometries (121, 200) are adjacent to each another axially at their front sides.
Method for determining the operating state of a battery with respect to one or more use profiles, comprising: - a prior learning step during which, for one or more use profiles, operational limits of said battery are defined according to parameters of the battery, said operational limits delimiting an operational zone in which the battery implements the use profile or profiles and a non-operational zone in which the battery does not implement the use profile or profiles, - a step of determining the operating state of the battery for a given use profile during which the parameters of the battery in operation are determined, and - a comparison step in which the operational limits resulting from the learning step and the parameters of the battery in operation resulting from the determination step are compared and the battery is positioned in the operational or non-operational zone, characterised in that it furthermore comprises an analysis step in which the parameter or parameters to be adjusted so that the battery returns to the operational zone are analysed, the parameter or parameters to be adjusted being the temperature of the battery. - a prior learning step during which, for one or more use profiles, operational limits of said battery are defined according to parameters of the battery, said operational limits delimiting an operational zone in which the battery implements the use profile or profiles and a non-operational zone in which the battery does not implement the use profile or profiles, - a step of determining the operating state of the battery for a given use profile during which the parameters of the battery in operation are determined, and - a comparison step in which the operational limits resulting from the learning step and the parameters of the battery in operation resulting from the determination step are compared and the battery is positioned in the operational or non-operational zone, characterised in that it furthermore comprises an analysis step in which the parameter or parameters to be adjusted so that the battery returns to the operational zone are analysed, the parameter or parameters to be adjusted being the temperature of the battery.
A detergent composition for the non-oxidative laundering of fabric stains, the composition comprising: (a) from 0.1 to 10% (by weight based on the total weight of the composition) of N,N'-bis(2-hydroxybenzyl)-ethylenediamine-N,N'-diacetic acid (HBED) and/or salts thereof, and (b) from 3 to 80% (by weight based on the total weight of the composition) of one or more detersive surfactants. (a) from 0.1 to 10% (by weight based on the total weight of the composition) of N,N'-bis(2-hydroxybenzyl)-ethylenediamine-N,N'-diacetic acid (HBED) and/or salts thereof, and (b) from 3 to 80% (by weight based on the total weight of the composition) of one or more detersive surfactants.
A flow system, comprising: a system flow path (101, 204, 304, 404, 504, 604, 704, 804) extending from a system inlet (106, 206, 306, 406, 506, 606, 706, 806) to a system outlet (108, 208, 308, 408, 508, 608, 708, 808); a pressure module (110, 210, 310, 410, 510, 610, 710, 810) provided within the system flow path (101, 204, 304, 404, 504, 604, 704, 804) to establish a differential pressure between upstream and downstream sides thereof during flow from the system inlet (106, 206, 306, 406, 506, 606, 706, 806) to the system outlet(108, 208, 308, 408, 508, 608, 708, 808), Characterized by; a valve (116, 216, 316, 416, 516, 616, 716, 816) provided within the system flow path; and a valve actuator (118, 218, 318, 418, 518, 618, 718, 818) in pressure communication with the system flow path on upstream and downstream sides of the pressure module to be driven by a differential pressure established by the pressure module from a first position in which the valve is closed, to a second position in which the valve is opened. a system flow path (101, 204, 304, 404, 504, 604, 704, 804) extending from a system inlet (106, 206, 306, 406, 506, 606, 706, 806) to a system outlet (108, 208, 308, 408, 508, 608, 708, 808); a pressure module (110, 210, 310, 410, 510, 610, 710, 810) provided within the system flow path (101, 204, 304, 404, 504, 604, 704, 804) to establish a differential pressure between upstream and downstream sides thereof during flow from the system inlet (106, 206, 306, 406, 506, 606, 706, 806) to the system outlet(108, 208, 308, 408, 508, 608, 708, 808), Characterized by; a valve (116, 216, 316, 416, 516, 616, 716, 816) provided within the system flow path; and a valve actuator (118, 218, 318, 418, 518, 618, 718, 818) in pressure communication with the system flow path on upstream and downstream sides of the pressure module to be driven by a differential pressure established by the pressure module from a first position in which the valve is closed, to a second position in which the valve is opened.
An internal combustion engine with an exhaust gas pipe for taking exhaust gases from the engine's combustion chamber and an intake pipe for supplying air to the said combustion chamber, and a turbo charging system with a turbo charger unit and a turbo compound unit, the turbo charging system comprising a high-pressure turbine and a low pressure turbine, wherein the high-pressure turbine interacts with a high-pressure compressor for recovery of energy from the engine's exhaust gas flow and pressurizing of the engine's intake air, and the low-pressure turbine is arranged for transferring force to the crankshaft of the internal combustion engine, or alternatively the high-pressure turbine is arranged for transferring force to the crankshaft of the internal combustion engine, and the low-pressure turbine interacts with a low-pressure compressor for recovery of energy from the engine's exhaust gas flow and pressurizing of the engine's intake air, which high-pressure turbine is connected to a low-pressure turbine of said turbo compound unit via a duct, characterized in that an exhaust gas pressure regulator is located in the duct between the high-pressure turbine and the low-pressure turbine, the low-pressure turbine is of the axial type, and in that the duct has a circular cross section that is formed of an outer wall that is symmetrical around its axis of rotation and that the duct has a cross section that increases in the direction towards the low-pressure turbine, and a central part arranged concentrically inside the wall with a cross section that increases in the direction towards the low-pressure turbine, the central part is provided with a control piston that is mounted on the central part in such a way that it can move axially between the central part and the outer wall for regulation of the flow area of the duct, where said exhaust gas pressure regulator creates a back pressure in the exhaust gas pipe.
A method for allocating an identification, ID, comprising: receiving a group ID of a group of group-paged objects allocated by a core network device for a terminal device, wherein the group of the group-paged objects comprises one or more subgroups; allocating a device ID or a user ID for the terminal device, wherein the device ID or the user ID comprises information of a subgroup ID of a subgroup to which the terminal device belongs; and sending the allocated device ID or user ID to the terminal device; the number of subgroups is determined according to the number of the terminal devices and the size of the subgroup. receiving a group ID of a group of group-paged objects allocated by a core network device for a terminal device, wherein the group of the group-paged objects comprises one or more subgroups; allocating a device ID or a user ID for the terminal device, wherein the device ID or the user ID comprises information of a subgroup ID of a subgroup to which the terminal device belongs; and sending the allocated device ID or user ID to the terminal device; the number of subgroups is determined according to the number of the terminal devices and the size of the subgroup.
A method for producing a piece part having a cavity, comprising at least the following steps: - producing a profile having ribs, the profile being designed as a hollow cylinder and the ribs extending on the outside of a shell surface of the hollow cylinder and running in the axial direction and the profile together with the ribs being produced by extrusion, - arranging the profile in a core casting tool so that the ribs extend in an intermediate space between the profile and the core casting tool, - producing a core in the intermediate space between the profile and the core casting tool, - removing the profile having the core arranged thereon from the core casting tool, - arranging the profile having the core in a casting tool, - casting a cast shell, the cast shell being in contact with the core and at least in sections has contact with at least some of the ribs, - removing the core. - producing a profile having ribs, the profile being designed as a hollow cylinder and the ribs extending on the outside of a shell surface of the hollow cylinder and running in the axial direction and the profile together with the ribs being produced by extrusion, - arranging the profile in a core casting tool so that the ribs extend in an intermediate space between the profile and the core casting tool, - producing a core in the intermediate space between the profile and the core casting tool, - removing the profile having the core arranged thereon from the core casting tool, - arranging the profile having the core in a casting tool, - casting a cast shell, the cast shell being in contact with the core and at least in sections has contact with at least some of the ribs, - removing the core.