mhurhangee/patent-ind-claim-en huggingface dataset:
A device for manufacturing a structural thermoplastic part, for being integrated into a primary structure of a plane, said structural part being formed from a blank part comprising reinforcing fibres embedded into a thermoplastic matrix, the manufacturing device comprising: - a support member for a blank part , the support member extending along a longitudinal axis (X), - at least one heating member configured to heat a local portion of the blank part to a temperature greater than 300°C for making the thermoplastic matrix of the blank part malleable, - at least one cooling member configured to cool the local portion of the blank part to a temperature for solidifying the thermoplastic matrix of the blank part , - at least one main compression member configured to compress the local portion of the blank part against the support member so as to decrease its porosity, the main compression member being located between the heating member and the cooling member , - a system for moving , upstream to downstream along the longitudinal axis (X) of the heating member , the compression member and the cooling member relative to the support member so as to strengthen each local portion of the blank part successively and - at least one module comprising a framework configured to be moved by the moving system , the main compression member being connected to said framework . - a support member for a blank part , the support member extending along a longitudinal axis (X), - at least one heating member configured to heat a local portion of the blank part to a temperature greater than 300°C for making the thermoplastic matrix of the blank part malleable, - at least one cooling member configured to cool the local portion of the blank part to a temperature for solidifying the thermoplastic matrix of the blank part , - at least one main compression member configured to compress the local portion of the blank part against the support member so as to decrease its porosity, the main compression member being located between the heating member and the cooling member , - a system for moving , upstream to downstream along the longitudinal axis (X) of the heating member , the compression member and the cooling member relative to the support member so as to strengthen each local portion of the blank part successively and - at least one module comprising a framework configured to be moved by the moving system , the main compression member being connected to said framework .
A method of arranging an anti-spillage structure on two components which are connected together, the two components comprises a base plate , wherein the anti-spillage structure is provided with a main welding rib and a material-blocking plate , comprising the steps of arranging the main welding rib and the material-blocking plate on the same component or arranging the main welding rib and the material-blocking plate respectively on the two components, and arranging an auxiliary welding rib at the top end of the material-blocking plate , welding the two components to each other, such that the base plate , the main welding rib , the material-blocking plate and the auxiliary welding rib enclose a spillage cavity to fully accommodate the spillage of the main welding rib generated in the welding process in the spillage cavity , characterized in that the top end of the main welding rib is a main melted zone , and the top end of the auxiliary welding rib is an auxiliary melted zone , and a thickness Ha of the main melted zone of the main welded rib and a thickness Hb of the auxiliary melted zone of the auxiliary melted rib which meet the following relationship: 0.25Ha≤Hb≤0.5Ha.
A method for incorporating at least one organic compound within a hydrogel, wherein said incorporation is carried out by dialysis, said organic compound being solubilised in the dialysis solution at a concentration equal or greater than the target concentration of organic compound in the gel after incorporation, said target concentration being from 0,01 to 500 mg/g.
A cylindrical secondary battery comprising: a wound electrode assembly formed by winding a positive electrode having a positive electrode active material layer disposed on a positive electrode current collector , a negative electrode having a negative electrode active material layer disposed on a negative electrode current collector , and a separator interposed between the positive electrode and the negative electrode ; a positive electrode tab connected to the positive electrode ; a cylindrical case body that houses the electrode assembly and the positive electrode tab ; and a sealing assembly that seals an opening of the case body , wherein the negative electrode has, at a winding end of the negative electrode , an exposed portion of the negative electrode current collector in which no negative electrode active material layer is disposed, and the exposed portion of the negative electrode current collector is disposed in contact with an inner surface of the case body , the electrode assembly has a region A in which the number of layers of the positive electrode in a radial direction is smaller than in another region of the electrode assembly , on a winding cross-section of the electrode assembly , and the positive electrode tab is disposed at a longitudinal center of the positive electrode and disposed in the region A. a wound electrode assembly formed by winding a positive electrode having a positive electrode active material layer disposed on a positive electrode current collector , a negative electrode having a negative electrode active material layer disposed on a negative electrode current collector , and a separator interposed between the positive electrode and the negative electrode ; a positive electrode tab connected to the positive electrode ; a cylindrical case body that houses the electrode assembly and the positive electrode tab ; and a sealing assembly that seals an opening of the case body , wherein the negative electrode has, at a winding end of the negative electrode , an exposed portion of the negative electrode current collector in which no negative electrode active material layer is disposed, and the exposed portion of the negative electrode current collector is disposed in contact with an inner surface of the case body , the electrode assembly has a region A in which the number of layers of the positive electrode in a radial direction is smaller than in another region of the electrode assembly , on a winding cross-section of the electrode assembly , and the positive electrode tab is disposed at a longitudinal center of the positive electrode and disposed in the region A.
Clamping device of an adjustable steering column for motor vehicles, in which clamping device a carrier which is connected fixedly to the vehicle chassis is connected to two clamping jaws which encompass the steering column and between which an axially and/or vertically adjustable casing tube of the steering column can be clamped fixedly, which casing tube receives a steering spindle , having a clamping bolt which connects the two clamping jaws and interacts with a fastening device which is arranged on at least one of the two clamping jaws , in such a way that, in the case of a rotation of the clamping bolt in the fastening direction about the bolt axis , the two clamping jaws clamp in the casing tube fixedly, and that, in the case of a rotation of the clamping bolt counter to the fastening direction, the clamping jaws release the casing tube for the steering column adjustment, and having an actuating lever which is fastened to one end of the clamping bolt for rotating the clamping bolt , the actuating lever being welded to the clamping bolt , characterized in that that end of the clamping bolt which is to be welded to the actuating lever is configured as a plate-shaped bolt head , the entire end face of which bolt head is welded to the actuating lever .
Floor-side wall termination having a plaster strip and a cover profile which can be connected to the plaster strip , wherein the plaster strip has a wall limb which can be fastened to a wall , a plaster connection limb which protrudes from the wall limb and holders which are distributed over the length of the plaster strip , wherein the wall limb of the plaster strip forms an undercut receiving groove which extends in the longitudinal direction of the plaster strip and into which the holders for fastening the cover profile engage, wherein the holders have resilient latching tongues engaging behind the undercuts of the receiving groove and have undercut latching recesses , into which resilient latching webs of the cover profile lying against the holders engage, characterised in that the holders have, on one side, said latching tongues and, on the other side, said latching recesses .
A method of synthesizing a global shutter image based on a rolling shutter image, the method comprising: using an elevation dataset corresponding to a rolling shutter image captured by a rolling shutter camera to define a 3D object space that includes information indicative of height of features in object space; projecting the rolling shutter image captured by the rolling shutter camera in a moving aerial camera system, the rolling shutter image having a plurality of scanlines having different associated position and pose information, to the 3D object space by projecting each scanline of the rolling shutter image from a camera optical center determined for the scanline using the position and pose information associated with the scanline, each scanline having a different camera optical center; and projecting, subsequently, from the 3D object space to a synthetic global shutter image. using an elevation dataset corresponding to a rolling shutter image captured by a rolling shutter camera to define a 3D object space that includes information indicative of height of features in object space; projecting the rolling shutter image captured by the rolling shutter camera in a moving aerial camera system, the rolling shutter image having a plurality of scanlines having different associated position and pose information, to the 3D object space by projecting each scanline of the rolling shutter image from a camera optical center determined for the scanline using the position and pose information associated with the scanline, each scanline having a different camera optical center; and projecting, subsequently, from the 3D object space to a synthetic global shutter image.
A food processor comprising: a base ; a container including an accommodation tub installed on an upper surface of the base and configured to accommodate a processing target, a handle support part laterally protruding from a side surface of the accommodation tub , and a handle extending from the handle support part ; a lower enclosure installed on the upper surface of the base , and an upper enclosure configured to be positioned in a coupled state and a released state with respect to the lower enclosure , characterized in that the lower enclosure is configured to surround a lower portion of the accommodation tub and to support a lower surface of the handle support part by a portion of an upper end thereof; the upper enclosure is configured to be engaged with the lower enclosure such that a portion of a lower end thereof supports an upper surface of the handle support part in the coupled state, and at least one of the upper enclosure and the lower enclosure supports a side surface of the handle support part to suppress shaking of the container . a base ; a container including an accommodation tub installed on an upper surface of the base and configured to accommodate a processing target, a handle support part laterally protruding from a side surface of the accommodation tub , and a handle extending from the handle support part ; a lower enclosure installed on the upper surface of the base , and an upper enclosure configured to be positioned in a coupled state and a released state with respect to the lower enclosure , characterized in that the lower enclosure is configured to surround a lower portion of the accommodation tub and to support a lower surface of the handle support part by a portion of an upper end thereof; the upper enclosure is configured to be engaged with the lower enclosure such that a portion of a lower end thereof supports an upper surface of the handle support part in the coupled state, and at least one of the upper enclosure and the lower enclosure supports a side surface of the handle support part to suppress shaking of the container .
A method for operating a gearless wind turbine, and the gearless wind turbine comprises - a generator for generating electrical power from wind, the generator having a generator axis, - a nacelle for supporting the generator, and - a tower for supporting the nacelle, the tower having a tower axis, and the method comprises the steps - sensing at least one tower vibration by means of a vibration pickup, - sensing a mechanical generator vibration, caused by at least one electrical fault, by means of the same vibration pickup, and - controlling the wind turbine in dependence on the sensed tower vibration and the sensed generator vibration, wherein the vibration pickup - is realized as an acceleration sensor, and - an acceleration is sensed in at least two directions. - a generator for generating electrical power from wind, the generator having a generator axis, - a nacelle for supporting the generator, and - a tower for supporting the nacelle, the tower having a tower axis, - sensing at least one tower vibration by means of a vibration pickup, - sensing a mechanical generator vibration, caused by at least one electrical fault, by means of the same vibration pickup, and - controlling the wind turbine in dependence on the sensed tower vibration and the sensed generator vibration, wherein - is realized as an acceleration sensor, and - an acceleration is sensed in at least two directions.
Mobile robotic wall segment fabrication system comprising at least one platform, whereby a depalletizing unit for unpacking blocks from pallets and a wall building unit to build prefabricated wall segments with said blocks provided by the depalletizing unit are arranged on the at least one platform, whereby the depalletizing unit is arranged at a first end of the at least one platform and that the wall building unit is arranged at a second end of the at least one platform which second end is located opposite to the first end, whereby the prefabricated wall segments are embodied as single rows of blocks that are stacked together or they are embodied of many rows that have been stacked together, whereby the wall building unit is embodied to assemble together the prefabricated wall segments on the at least one platform.
Method for stabilizing the size of an object previously produced by hot-molding a composite material, the composite material comprising expanded microspheres and unexpanded microspheres, the microspheres being made of plastic material, of closed shape, hollow and filled with gas; comprising the step of heating again the molded object bringing it at a temperature which induces internal residual gas to exit from the material. the composite material comprising expanded microspheres and unexpanded microspheres, the microspheres being made of plastic material, of closed shape, hollow and filled with gas; comprising the step of heating again the molded object bringing it at a temperature which induces internal residual gas to exit from the material.
A plastic pallet with an upper part provided with outer and middle female foot parts and runners provided with outer and middle male foot parts, wherein the male foot parts of the runners are pushed into the female foot parts of the upper part , wherein the male foot parts form feet with the female foot parts , wherein the foot parts of the upper part and the foot parts of the runners are fastened to one another by means of snap connections , wherein each male foot part comprises at least two snap hooks , which are arranged in pairs mirror-symmetrically and which each comprise a hook head with undercuts , a snap arm and a rear side , wherein the undercuts of the hook heads face away from one another and the rear sides of the snap hooks face towards one another, wherein each female foot part comprises at least one snap-in element , into which the hook heads are snapped and which each form a snap connection , wherein an intermediate space is arranged between the rear sides of the snap hooks , and wherein the female foot parts are connected in one piece with the upper part , characterised in that each female foot part comprises at least one safety element with at least one free end in each case, wherein the safety element is connected in one piece with the female foot part , and wherein the safety element projects into the intermediate space between the rear sides of the snap hooks , so that the snap hooks remain in the snapped-in position.
Sensor system for capacitively measuring the fill level of a liquid medium in a container, comprising a receptacle , which is provided with two contact regions for the contact with an exterior surface of the received container, and with at least one level detection electrode (C 1 , C 2 , C 11 , C 12 , C 21 , C 22 ) disposed in each of the contact regions for capacitively detecting the liquid level in the container, characterised in that the sensor system has a capacitive coupling measuring device (C 11 , C 12 , C 21 , C 22 ) for capacitively determining correct coupling of the container in the receptacle, wherein means are present for generating electric fields for the level and coupling measurement and means are present for capturing the complex impedance of different level detection electrodes (C 11 , C 12 , C 21 , C 22 ) according to magnitude, phase and their change over time.
A bicycle stand which includes a frame with a first elongate member with an inner end , an outer end and a first channel formation , a second elongate member with a first end secured to the inner end of the first elongate member , a second end and a second channel formation , a retaining member at or near the second end of the second elongate member and a stabilizing structure , wherein, with the frame in an operative mode, the first elongate member is on the ground, the first channel formation faces upwardly, the second elongate member extends upwardly, and the second channel formation faces towards the direction of the outer end of the first elongate member , the stabilizing structure including a first arm which extends to one side of the first elongate member and a second arm which extends to an opposing side of the first elongate member , the first and second channel formations being configured to receive and engage with respective sections of a rear wheel of a bicycle in a storage position at which a front wheel of the bicycle is elevated to be above the rear wheel , characterized in that the retaining member is configured to engage with the bicycle at a saddle shaft of the bicycle , in that the first channel formation of the first elongate member slopes downwardly from the outer end to the inner end towards the second elongate member , and in that an outer end of the first arm , an outer end of the second arm and the outer end of the first elongate member are respectively positioned at apices of a triangle and a centre of gravity of the bicycle supported by the bicycle stand , then lies above but within the boundaries of the triangle to achieve a stable configuration.
A noise reducing device for a wind turbine blade , having a first end , a second end , a first side surface and a second side surface , the noise reducing device comprises a base part and at least one noise reducing element , the base part is defined between the first end and a proximal end and the at least one noise reducing element extends from said proximal end of the base part to the second end , the base part is configured for attachment to a side surface adjacent to a trailing edge of the wind turbine blade or for attachment to a trailing edge surface of the wind turbine blade so that the at least one noise reducing element projects outwards from the trailing edge , when installed, wherein at least one airflow modifying element projects from at least one side surface of the at least one noise reducing element , the at least one airflow modifying element is configured to interact with a local boundary layer attached to said at least one side surface of the noise reducing device when installed, wherein the at least one airflow modifying element extends substantially in a transverse direction from a local first end to a local second end , and the at least one noise reducing element is serrations and said at least one airflow modifying element is vanes and has a local height (h a , h b ) measured between said at least one side surface and a top of said airflow modifying element , characterised in that the local height (h a , h b ) is equal to or less than two-thirds of a local boundary layer thickness (t b ) at the noise reducing device when installed, wherein the local boundary layer thickness (t b ) is determined when the wind turbine blade is operated at a rated rotational speed.
A method for transmitting, by a user equipment, UE , a power headroom, PH, report, PHR, for dual connectivity in a wireless communication system, wherein the UE is connected to both a first eNodeB, eNB, and a second eNB in the dual connectivity, the method comprising: transmitting a first type 1 PH for all activated carriers in a first carrier group, CG, corresponding to the first eNB, to the first eNB; transmitting a second type 1 PH for all activated carriers in a second CG, corresponding to the second eNB, to the first eNB; transmitting a first type 2 PH for a carrier where a physical uplink control channel, PUCCH, can be transmitted in the first CG to the first eNB, when simultaneous transmission of the PUCCH and a physical uplink shared channel, PUSCH, is configured for the first eNB; characterised in that the method further comprises: transmitting a second type 2 PH for a carrier where a PUCCH can be transmitted in the second CG to the first eNB regardless of whether simultaneous transmission of the PUCCH and the PUSCH is configured or not for the second eNB; transmitting a flag informing that the PUCCH has been transmitted to the second eNB in the carrier in the second CG to the first eNB; and transmitting information informing that a transmission power of the PUCCH is reduced due to transmission of other carriers to the first eNB. transmitting a first type 1 PH for all activated carriers in a first carrier group, CG, corresponding to the first eNB, to the first eNB; transmitting a second type 1 PH for all activated carriers in a second CG, corresponding to the second eNB, to the first eNB; transmitting a first type 2 PH for a carrier where a physical uplink control channel, PUCCH, can be transmitted in the first CG to the first eNB, when simultaneous transmission of the PUCCH and a physical uplink shared channel, PUSCH, is configured for the first eNB; characterised in that the method further comprises: transmitting a second type 2 PH for a carrier where a PUCCH can be transmitted in the second CG to the first eNB regardless of whether simultaneous transmission of the PUCCH and the PUSCH is configured or not for the second eNB; transmitting a flag informing that the PUCCH has been transmitted to the second eNB in the carrier in the second CG to the first eNB; and transmitting information informing that a transmission power of the PUCCH is reduced due to transmission of other carriers to the first eNB. transmitting a second type 2 PH for a carrier where a PUCCH can be transmitted in the second CG to the first eNB regardless of whether simultaneous transmission of the PUCCH and the PUSCH is configured or not for the second eNB; transmitting a flag informing that the PUCCH has been transmitted to the second eNB in the carrier in the second CG to the first eNB; and transmitting information informing that a transmission power of the PUCCH is reduced due to transmission of other carriers to the first eNB.