mhurhangee/patent-ind-claim-en huggingface dataset:
A deflection device for protecting a track arrangement and in particular a track switch from environmental influences such as wind, snow or sand, - comprising an elongated retaining ledge extending along a longitudinal direction for mounting laterally next to the track arrangement , - wherein a flexible ground skirt and a flexible windscreen are attached to the retaining ledge , - wherein the ground skirt , following the elongated contour of the retaining ledge , projects from the retaining ledge in the direction of the ground , - wherein the windscreen , following the elongated contour of the retaining ledge , projects upwards from the retaining ledge , characterized - in that main incisions are provided in the ground skirt , each of which extends in the form of a slot from the external edge of the ground skirt into a functional opening with a rounded shape. - comprising an elongated retaining ledge extending along a longitudinal direction for mounting laterally next to the track arrangement , - wherein a flexible ground skirt and a flexible windscreen are attached to the retaining ledge , - wherein the ground skirt , following the elongated contour of the retaining ledge , projects from the retaining ledge in the direction of the ground , - wherein the windscreen , following the elongated contour of the retaining ledge , projects upwards from the retaining ledge , characterized - in that main incisions are provided in the ground skirt , each of which extends in the form of a slot from the external edge of the ground skirt into a functional opening with a rounded shape.
A method at a transmission point for obtaining resources of a channel in an unlicensed spectrum band, the method comprising: performing sensing on a plurality of channels; providing a report to a network element in accordance with results of the sensing; receiving a message providing at least one radio access cluster for the transmission point per channel; contending with other radio access clusters to send a coordination beacon on a channel; receiving coordination beacons from neighboring radio access clusters on the channel; reporting information from the coordination beacons to a network element ; and receiving an allocation of resources for the channel; wherein the contending to send a coordination beacon is preceded by a fake wireless local area network clear to send message; and wherein the contending to send includes waiting a random backoff time from a last detected sequence to send the coordination beacon. performing sensing on a plurality of channels; providing a report to a network element in accordance with results of the sensing; receiving a message providing at least one radio access cluster for the transmission point per channel; contending with other radio access clusters to send a coordination beacon on a channel; receiving coordination beacons from neighboring radio access clusters on the channel; reporting information from the coordination beacons to a network element ; and receiving an allocation of resources for the channel; wherein the contending to send a coordination beacon is preceded by a fake wireless local area network clear to send message; and wherein the contending to send includes waiting a random backoff time from a last detected sequence to send the coordination beacon.
A fuel tank comprising a filling place which is provided to allow fuel access into the reservoir, and a float which enables to measure the fuel amount inside the reservoir, and comprising the following in order to provide fuel suction continuously from inside the fuel tank : • A small reservoir separated inside the reservoir with a partition wall (2.3) which extends at a vertical direction, sufficiently perpendicular to the base of the fuel tank , • A large reservoir having a larger volume relative to the small reservoir such that it is neighbouring the small reservoir located inside the fuel tank , • A first suction pipe (3.1) extending into the large reservoir , and • A second suction pipe (2.1) extending into the small reservoir , the fuel tank being characterized by further comprising: • an electro valve which determines the suction pipe (2.1, 3.1) which needs to carry out suction in accordance with the fuel amount information received from the float , wherein the first suction pipe (3.1) and the second suction pipe (2.1) are connected to each other. • A small reservoir separated inside the reservoir with a partition wall (2.3) which extends at a vertical direction, sufficiently perpendicular to the base of the fuel tank , • A large reservoir having a larger volume relative to the small reservoir such that it is neighbouring the small reservoir located inside the fuel tank , • A first suction pipe (3.1) extending into the large reservoir , and • A second suction pipe (2.1) extending into the small reservoir , • an electro valve which determines the suction pipe (2.1, 3.1) which needs to carry out suction in accordance with the fuel amount information received from the float , wherein the first suction pipe (3.1) and the second suction pipe (2.1) are connected to each other.
Use of an IGFBP7 agent in the preparation of a medicament for the treatment of a tumor in a subject, wherein the treatment comprises detecting a cell of the tumor as having increased Ras-BRAF-MEK-Erk signaling, and the IGFBP7 agent comprises an IGFBP7 polypeptide or a nucleic acid encoding the IGFBP7 polypeptide.
A compound having formula : including enantiomers, diastereomers, hydrates, solvates and pharmaceutically acceptable salts thereof, wherein: R 23 is selected from the group consisting H, CH 3 , CH 2 CH 3 , CH 2 CH 2 CH 3 , CH 2 CCH, CH(CH 3 ) 2 , CH 2 CH(CH 3 ) 2 , CH(CH 3 )CH 2 CH 3 , CH 2 OH, CH 2 OCH 2 Ph, CH 2 CH 2 OCH 2 Ph, CH(OH)CH 3 , CH 2 Ph, CH 2 (cyclohexyl), CH 2 (4-OH-Ph), (CH 2 ) 4 NH 2 , (CH 2 ) 3 NHC(NH 2 )NH, CH 2 (3-indole), CH 2 (5-imidazole), CH 2 CO 2 H, CH 2 CH 2 CO 2 H, CH 2 CONH 2 , and CH 2 CH 2 CONH 2 ;
A pre-charging method of a power conversion device , wherein the power conversion device is used for a power conversion between a charging apparatus and a power battery, and the method comprises: receiving , by the power conversion device , a first message transmitted by a battery management system of the power battery, wherein the first message indicates a charging readiness of the battery management system ; and transmitting , by the power conversion device , the first message to the charging apparatus and performing a pre-charging, wherein the pre-charging comprises charging a capacitor in the power conversion device ; receiving, by the power conversion device, a second message transmitted by the charging apparatus, wherein the second message indicates a charging readiness of the charging apparatus; and transmitting, by the power conversion device, a charging demand message to the charging apparatus under a condition that the pre-charging is not completed, wherein the charging demand message carries a demand current value and the demand current value is a minimum value of a demand current. receiving , by the power conversion device , a first message transmitted by a battery management system of the power battery, wherein the first message indicates a charging readiness of the battery management system ; and transmitting , by the power conversion device , the first message to the charging apparatus and performing a pre-charging, wherein the pre-charging comprises charging a capacitor in the power conversion device ; receiving, by the power conversion device, a second message transmitted by the charging apparatus, wherein the second message indicates a charging readiness of the charging apparatus; and transmitting, by the power conversion device, a charging demand message to the charging apparatus under a condition that the pre-charging is not completed, wherein the charging demand message carries a demand current value and the demand current value is a minimum value of a demand current.
A glass waveguide assembly , comprising: a glass substrate defined by a body having a top surface , a front-end section and a back-end section ; a waveguide array comprising a plurality of glass optical waveguides , each glass optical waveguide having respective front and back ends and being formed within the body of the glass substrate , the glass optical waveguides running from the front-end section to the back-end section of the glass substrate ; a protective coating made of a dielectric material formed over at least a portion of the top surface adjacent to the waveguide array , characterised in that at least one of the front-end and back-end sections of the glass substrate includes slots that define a plurality of waveguide sections , wherein the plurality of waveguide sections comprise the front or back end of the plurality of glass optical waveguides , and wherein the waveguide sections are independently flexible; and the glass waveguide assembly comprises a plurality of connectors , wherein each connector is operably arranged at the respective front or back end of the glass optical waveguides in each waveguide section , and terminates one or more of the plurality of the glass optical waveguides . a glass substrate defined by a body having a top surface , a front-end section and a back-end section ; a waveguide array comprising a plurality of glass optical waveguides , each glass optical waveguide having respective front and back ends and being formed within the body of the glass substrate , the glass optical waveguides running from the front-end section to the back-end section of the glass substrate ; a protective coating made of a dielectric material formed over at least a portion of the top surface adjacent to the waveguide array , characterised in that at least one of the front-end and back-end sections of the glass substrate includes slots that define a plurality of waveguide sections , wherein the plurality of waveguide sections comprise the front or back end of the plurality of glass optical waveguides , and wherein the waveguide sections are independently flexible; and the glass waveguide assembly comprises a plurality of connectors , wherein each connector is operably arranged at the respective front or back end of the glass optical waveguides in each waveguide section , and terminates one or more of the plurality of the glass optical waveguides . a protective coating made of a dielectric material formed over at least a portion of the top surface adjacent to the waveguide array , characterised in that at least one of the front-end and back-end sections of the glass substrate includes slots that define a plurality of waveguide sections , wherein the plurality of waveguide sections comprise the front or back end of the plurality of glass optical waveguides , and wherein the waveguide sections are independently flexible; and the glass waveguide assembly comprises a plurality of connectors , wherein each connector is operably arranged at the respective front or back end of the glass optical waveguides in each waveguide section , and terminates one or more of the plurality of the glass optical waveguides .
An exoskeleton system arranged to be worn by an operator and assume a position corresponding to a joint of the operator, the exoskeleton system comprising: a compensation device operable to compensate resistive moments acting on the joint during an effort exerted by the operator, the compensation device comprising: a first rotatable member and a second rotatable member engaging the first rotatable member at an engagement portion and arranged to be brought into relative motion about a first axis of rotation (I3) as a result of movement of the joint of the operator, the second rotatable member rotatable about a second axis of rotation (I4); an elastic mechanism defining a first end connecting to the second rotatable member to impart on the first axis of rotation (I3) a moment opposite to the resistive moments; and a regulation device connecting to a second end of the elastic mechanism for adjusting tension in the elastic mechanism by adjusting a length (L3, L4) of the elastic mechanism between the first and second ends thereof, characterized by a control system connected to the regulation device for adjusting tension in the elastic mechanism ; wherein the regulation device includes a motor for linearly adjusting the length (L3, L4) of the elastic mechanism , the regulation device further including a linkage assembly having a first portion connected to the motor , a central portion pivotally connected to the elastic mechanism and a second portion slidably connected to a casing of the compensation device . a first rotatable member and a second rotatable member engaging the first rotatable member at an engagement portion and arranged to be brought into relative motion about a first axis of rotation (I3) as a result of movement of the joint of the operator, the second rotatable member rotatable about a second axis of rotation (I4); an elastic mechanism defining a first end connecting to the second rotatable member to impart on the first axis of rotation (I3) a moment opposite to the resistive moments; and a regulation device connecting to a second end of the elastic mechanism for adjusting tension in the elastic mechanism by adjusting a length (L3, L4) of the elastic mechanism between the first and second ends thereof, characterized by a control system connected to the regulation device for adjusting tension in the elastic mechanism ; wherein the regulation device includes a motor for linearly adjusting the length (L3, L4) of the elastic mechanism , the regulation device further including a linkage assembly having a first portion connected to the motor , a central portion pivotally connected to the elastic mechanism and a second portion slidably connected to a casing of the compensation device .
A communication method, comprising: determining (S102, S202), by the first terminal, a starting subframe of a resource period; and sending (S103, S203), by the first terminal, communication data to a second terminal according to the starting subframe and a period duration of the resource period; wherein the communication data is transmitted for multiple times in the resource period, the method further comprises: sending (S208a), by the first terminal, transmission sequence number indication information and time domain transmission resource indication information to the second terminal which performs direct communication with the first terminal; wherein the transmission sequence number indication information is used to indicate a transmission sequence number of the communication data in the resource period; and the time domain transmission resource indication information is used to indicate a time domain resource position that is relative to the starting subframe and that is of a time of the multiple times for which the communication data is transmitted in the resource period. determining (S102, S202), by the first terminal, a starting subframe of a resource period; and sending (S103, S203), by the first terminal, communication data to a second terminal according to the starting subframe and a period duration of the resource period; wherein the communication data is transmitted for multiple times in the resource period, the method further comprises: sending (S208a), by the first terminal, transmission sequence number indication information and time domain transmission resource indication information to the second terminal which performs direct communication with the first terminal; wherein the transmission sequence number indication information is used to indicate a transmission sequence number of the communication data in the resource period; and the time domain transmission resource indication information is used to indicate a time domain resource position that is relative to the starting subframe and that is of a time of the multiple times for which the communication data is transmitted in the resource period. sending (S208a), by the first terminal, transmission sequence number indication information and time domain transmission resource indication information to the second terminal which performs direct communication with the first terminal; wherein the transmission sequence number indication information is used to indicate a transmission sequence number of the communication data in the resource period; and the time domain transmission resource indication information is used to indicate a time domain resource position that is relative to the starting subframe and that is of a time of the multiple times for which the communication data is transmitted in the resource period.
A threaded fastener for fastening objects including: a stud rotatably coupled to a stud-head having a bottom surface; and the bottom surface having friction coefficient increasing treatments biased in areas outward from the stud , wherein the friction coefficient increasing treatments are not located at or near the radius of the stud . a stud rotatably coupled to a stud-head having a bottom surface; and the bottom surface having friction coefficient increasing treatments biased in areas outward from the stud , wherein the friction coefficient increasing treatments are not located at or near the radius of the stud .
A work implement for use with a machine , the work implement comprising: a body that is configured to perform work and that includes a wall ; and a hinge attachment bracket that is attached to the wall ; characterized in that the hinge attachment bracket comprises a substantial I-beam configuration that includes a first flange , a second flange (306"), a web that connects the first flange to the second flange (306") and that defines a boss that defines a pin receiving bore that establishes a radial direction (R) and a longitudinal axis (L), wherein: the first and second flanges (306', 306") merge toward each other tangentially forming a first extension portion . a body that is configured to perform work and that includes a wall ; and a hinge attachment bracket that is attached to the wall ; characterized in that the hinge attachment bracket comprises a substantial I-beam configuration that includes a first flange , a second flange (306"), a web that connects the first flange to the second flange (306") and that defines a boss that defines a pin receiving bore that establishes a radial direction (R) and a longitudinal axis (L), wherein: the first and second flanges (306', 306") merge toward each other tangentially forming a first extension portion .
A receiver comprising: an orthogonal frequency division multiplexed, OFDM, receiver for receiving an OFDM broadcast signal, the received OFDM broadcast signal conveying frames, each frame comprising a preamble portion and a following data portion; characterized by wherein at least one preamble portion conveys information to the receiver if a following data portion has been filtered prior to transmission; and a processor , responsive to the information if a following data portion has been filtered prior to transmission, for controlling a filter to process the following data portion to compensate for the filtering prior to transmission. an orthogonal frequency division multiplexed, OFDM, receiver for receiving an OFDM broadcast signal, the received OFDM broadcast signal conveying frames, each frame comprising a preamble portion and a following data portion; characterized by wherein at least one preamble portion conveys information to the receiver if a following data portion has been filtered prior to transmission; and a processor , responsive to the information if a following data portion has been filtered prior to transmission, for controlling a filter to process the following data portion to compensate for the filtering prior to transmission.
An optoelectronic semiconductor structure including: - a semiconductor substrate having a first and second face , - a nucleation layer in contact with the first face of the substrate , - a nanowire in contact with the nucleation layer, the nucleation layer being formed from at least one pad and covering the first face of the substrate over a portion of the first face , called the "nucleation" face, where the portion of the first face which is not covered by the nucleation layer is called the "free" portion, where the structure also includes a conducting layer in contact with the free portion of the substrate , and the said conducting layer being also in contact with the nanowire on the perimeter of the nanowire . Said structure being characterized in that the nucleation layer is an wide-gap semiconductor with a forbidden energy band higher than 5 eV and in that the free portion of the first face is recessed relative to the nucleation portion , over a recess height (h recess ) which is between 1nm and 5μm, and where the said recess height (h recess ) is preferentially between 1nm and 500nm. - a semiconductor substrate having a first and second face , - a nucleation layer in contact with the first face of the substrate , - a nanowire in contact with the nucleation layer,
Method for connecting two electrically conductive components by means of a laser beam , wherein the first component , which faces the side of the laser beam , is provided in regions with an injection-moulded encapsulation consisting of plastics material and has a recess free of the injection-moulded encapsulation on either side in the region of a connection zone of the two components , and wherein the second component , which is remote from the laser beam , bears at least in certain regions against the first component in the region of the connection zone , wherein the first component is formed with an elevation on the side facing the laser beam in the region of the connection zone , with the result that the first component reaches at least up to the top side of the plastics material of the injection-moulded encapsulation on the side facing the laser beam and preferably protrudes in height beyond the injection-moulded encapsulation by a magnitude Δh. wherein the first component is formed with an elevation on the side facing the laser beam in the region of the connection zone , with the result that the first component reaches at least up to the top side of the plastics material of the injection-moulded encapsulation on the side facing the laser beam and preferably protrudes in height beyond the injection-moulded encapsulation by a magnitude Δh.