mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus, comprising: a female connector body comprising at least one mating surface having a first longitudinal end, and a second longitudinal end that is narrower than the first longitudinal end, wherein the mating surface is an inner surface of the female connector body; a plurality of electrically-conductive female terminals coupled to the mating surface of the female connector body; a male connector body , comprising at least one mating surface having a first longitudinal end, and a second longitudinal end that is narrower than the first longitudinal end, wherein the mating surface is an outer surface of the male connector body; and a plurality of electrically-conductive male terminals coupled to the mating surface of the male connector body; characterised in that the apparatus further comprises; an electrically-insulative connector sheath , shaped to define a plurality of apertures positioned such that, when the connector sheath is inside the female connector body or the male connector body is inside the connector sheath, each one of the apertures is aligned with a respective one of the female or male electrically-conductive terminals, respectively; and a plurality of electrical conductors disposed, respectively, within the apertures. a female connector body comprising at least one mating surface having a first longitudinal end, and a second longitudinal end that is narrower than the first longitudinal end, wherein the mating surface is an inner surface of the female connector body; a plurality of electrically-conductive female terminals coupled to the mating surface of the female connector body; a male connector body , comprising at least one mating surface having a first longitudinal end, and a second longitudinal end that is narrower than the first longitudinal end, wherein the mating surface is an outer surface of the male connector body; and a plurality of electrically-conductive male terminals coupled to the mating surface of the male connector body; characterised in that the apparatus further comprises; an electrically-insulative connector sheath , shaped to define a plurality of apertures positioned such that, when the connector sheath is inside the female connector body or the male connector body is inside the connector sheath, each one of the apertures is aligned with a respective one of the female or male electrically-conductive terminals, respectively; and a plurality of electrical conductors disposed, respectively, within the apertures.
A production specification determination method for a metal material, the production specification determination method comprising: acquiring (S601), as a portion of production specifications, at least one piece of performance data established after a predetermined process during production of a metal material; and performing back analysis based on the at least one piece of performance data and a prediction model that relates the production specifications including the at least one piece of performance data and material characteristics, and optimizing, during production, production specifications for after the predetermined process by performing feedforward calculation of control amount of a process after the predetermined process in an entire production process and transmitting the control amount to the process as an instruction value such that an estimated value for the material characteristics asymptotically approaches (S601 .. 603) a desired value. acquiring (S601), as a portion of production specifications, at least one piece of performance data established after a predetermined process during production of a metal material; and performing back analysis based on the at least one piece of performance data and a prediction model that relates the production specifications including the at least one piece of performance data and material characteristics, and optimizing, during production, production specifications for after the predetermined process by performing feedforward calculation of control amount of a process after the predetermined process in an entire production process and transmitting the control amount to the process as an instruction value such that an estimated value for the material characteristics asymptotically approaches (S601 .. 603) a desired value.
A method for switching a roadside navigation unit RSU used in a navigation system for navigating a self-driving vehicle, wherein the method comprises: receiving , by an onboard unit OBU of the self-driving vehicle while travelling into an overlapped area of a coverage area of a first RSU with a coverage area of an adjacent, second RSU, a switching notification message sent by the first RSU, wherein the switching notification message is used to instruct the OBU to switch from using the first RSU to using the second RSU for navigating the self-driving vehicle; sending , by the OBU, a registration request to the second RSU to request to obtain local path information about a detailed driving route of the self-driving vehicle within the coverage area of the second RSU; wherein the detailed driving route is a path with a precision at lane level along a respective part of a global path of the self-driving vehicle within the coverage area of the second RSU; receiving , by the OBU, the local path information about the detailed driving route sent by the second RSU; and switching , by the OBU, from using the first RSU to using the second RSU for navigating the self-driving vehicle along the detailed driving route according to the local path information about the detailed driving route receiving , by an onboard unit OBU of the self-driving vehicle while travelling into an overlapped area of a coverage area of a first RSU with a coverage area of an adjacent, second RSU, a switching notification message sent by the first RSU, wherein the switching notification message is used to instruct the OBU to switch from using the first RSU to using the second RSU for navigating the self-driving vehicle; sending , by the OBU, a registration request to the second RSU to request to obtain local path information about a detailed driving route of the self-driving vehicle within the coverage area of the second RSU; wherein the detailed driving route is a path with a precision at lane level along a respective part of a global path of the self-driving vehicle within the coverage area of the second RSU; receiving , by the OBU, the local path information about the detailed driving route sent by the second RSU; and switching , by the OBU, from using the first RSU to using the second RSU for navigating the self-driving vehicle along the detailed driving route according to the local path information about the detailed driving route
A transdermal administration device comprising: a substrate having a first surface and a second surface which is a surface opposite to the first surface ; a plurality of projections protruding from the first surface , the plurality of projections being provided for piercing an administration target; and a raised and/or recessed structure composed of a plurality of raised and/or recessed elements , the plurality of raised and/or recessed elements including at least either raised elements raised from the second surface or recessed elements recessed from the second surface , wherein the substrate , the projections and the raised and/or recessed structure are made of transparent material, and the plurality of raised and/or recessed elements forms a pattern as viewed in a direction perpendicular to the second surface which is finer than a pattern formed by the plurality of projections as viewed in a direction perpendicular to the first surface . a substrate having a first surface and a second surface which is a surface opposite to the first surface ; a plurality of projections protruding from the first surface , the plurality of projections being provided for piercing an administration target; and a raised and/or recessed structure composed of a plurality of raised and/or recessed elements , the plurality of raised and/or recessed elements including at least either raised elements raised from the second surface or recessed elements recessed from the second surface , wherein the substrate , the projections and the raised and/or recessed structure are made of transparent material, and the plurality of raised and/or recessed elements forms a pattern as viewed in a direction perpendicular to the second surface which is finer than a pattern formed by the plurality of projections as viewed in a direction perpendicular to the first surface .
A method of filling a container for the storage and dispensation of a fluid, the method comprising the steps of: partially filling a container with activated carbon, introducing a fluid into a malleable enclosure ; inserting the enclosure into the container ; sealing the container with a valve assembly ; and charging a gas to the container for adsorption on the activated carbon, wherein the gas is carbon dioxide and solid carbon dioxide is used to charge the gas to the container for adsorption on the activated carbon. partially filling a container with activated carbon, introducing a fluid into a malleable enclosure ; inserting the enclosure into the container ; sealing the container with a valve assembly ; and charging a gas to the container for adsorption on the activated carbon, wherein the gas is carbon dioxide and solid carbon dioxide is used to charge the gas to the container for adsorption on the activated carbon.
A method implemented in a first wireless transmit/receive unit, WTRU, the method comprising: receiving , from a second WTRU, a first sidelink transmission comprising a first information indicating an amount of time for the first WTRU to refrain from transmitting, to the second WTRU; determining to reselect to a third WTRU responsive to receiving the first information and based on a second sidelink transmission from the third WTRU; establishing a connection with the third WTRU; and characterised by transmitting , to the third WTRU, a third sidelink transmission comprising a second information indicating congestion as a cause for the reselection. determining to reselect to a third WTRU responsive to receiving the first information and based on a second sidelink transmission from the third WTRU; establishing a connection with the third WTRU; and characterised by transmitting , to the third WTRU, a third sidelink transmission comprising a second information indicating congestion as a cause for the reselection.
A salt which is ( R )-4-(3-(( S )-1-(4-amino-3-methyl-1H-pyrazolo[3,4-d]pyrimidin-1-yl)ethyl)-5-chloro-2-ethoxy-6-fluorophenyl)pyrrolidin-2-one hydrochloric acid salt, that is crystalline.
A flow control system for selectively controlling a flow of fluid in either a first fluid circuit (H) or a second fluid circuit (C) of a Heating, Ventilating and Air Conditioning HVAC system, comprising: - a 3-way changeover valve comprising a first fluid input port (I1) fluidically connectable to the first fluid circuit (H), a second fluid input port (I2) fluidically connectable to the second fluid circuit (C), and a fluid output port (O); - a control valve fluidically connected to the fluid output port (O); - a flow sensor configured to measure a current flow of fluid (Φ) through the control valve ; and - a controller configured to: - receive a flow setpoint signal, the flow setpoint signal comprising an indication of a fluid circuit selection and a flow setpoint value; - direct the 3-way changeover valve to switch between two fully open positions for fluidically connecting either the first fluid circuit (H) or the second fluid circuit (C) with the fluid output port (O) according to the fluid circuit selection, allowing a defined maximum fluid flow through the 3-way changeover valve ; and - direct the control valve to control the flow of fluid, using the flow setpoint value and the current flow of fluid (Φ) measured by the flow sensor , characterized in that the flow sensor (1 32)is arranged upstream from the control valve . - a 3-way changeover valve comprising a first fluid input port (I1) fluidically connectable to the first fluid circuit (H), a second fluid input port (I2) fluidically connectable to the second fluid circuit (C), and a fluid output port (O); - a control valve fluidically connected to the fluid output port (O); - a flow sensor configured to measure a current flow of fluid (Φ) through the control valve ; and - a controller configured to: - receive a flow setpoint signal, the flow setpoint signal comprising an indication of a fluid circuit selection and a flow setpoint value; - direct the 3-way changeover valve to switch between two fully open positions for fluidically connecting either the first fluid circuit (H) or the second fluid circuit (C) with the fluid output port (O) according to the fluid circuit selection, allowing a defined maximum fluid flow through the 3-way changeover valve ; and - direct the control valve to control the flow of fluid, using the flow setpoint value and the current flow of fluid (Φ) measured by the flow sensor , characterized in that the flow sensor (1 32)is arranged upstream from the control valve . - receive a flow setpoint signal, the flow setpoint signal comprising an indication of a fluid circuit selection and a flow setpoint value; - direct the 3-way changeover valve to switch between two fully open positions for fluidically connecting either the first fluid circuit (H) or the second fluid circuit (C) with the fluid output port (O) according to the fluid circuit selection, allowing a defined maximum fluid flow through the 3-way changeover valve ; and - direct the control valve to control the flow of fluid, using the flow setpoint value and the current flow of fluid (Φ) measured by the flow sensor ,
A method for transmitting uplink control information in a Single-Carrier Frequency Division Multiple Access, SC-FDMA communication system, the method comprising: determining a channel quality indication, CQI , and two acknowledgement bits in response to downlink data reception; applying complex scaling coefficients to a reference signal based on a value of the two acknowledgement bits; and transmitting the reference signal on first SC-FDMA symbols in a slot and the CQI on second SC-FDMA symbols in the slot, wherein the number of said first SC-FDMA symbols is equal to two. determining a channel quality indication, CQI , and two acknowledgement bits in response to downlink data reception; applying complex scaling coefficients to a reference signal based on a value of the two acknowledgement bits; and transmitting the reference signal on first SC-FDMA symbols in a slot and the CQI on second SC-FDMA symbols in the slot, wherein the number of said first SC-FDMA symbols is equal to two.
A method for installing a brake pad into a disc brake comprising a brake caliper , a brake pad carrier and a brake disk , the caliper being configured to straddle the carrier and the disk, the brake pad having a radially outer and a radially inner edge and opposing lateral edges between the radially outer and inner edges, comprising the acts of: aligning the brake pad with at least one radially-oriented brake pad insertion feature in the brake pad carrier , the brake pad being oriented as when the brake pad is in an installed position and having at least one pad retaining feature on at least one lateral edge of the brake pad , the at least one pad retaining feature on at least one lateral edge of the brake pad being configured to retain the brake pad against radially outward motion when the brake pad is in the installed position; moving the brake pad in a radially-inward direction through a brake pad opening of the brake caliper when the brake caliper is in an operating position on the disc brake while maintaining the brake pad oriented as when in the installed position until the at least one pad retaining feature of the brake pad is aligned with at least one lateral brake pad receiving feature of the brake pad carrier oriented parallel to a brake disk rotation axis; moving the brake pad toward the brake disk to engage the at least one brake pad retaining feature with the at least one lateral brake pad receiving feature . aligning the brake pad with at least one radially-oriented brake pad insertion feature in the brake pad carrier , the brake pad being oriented as when the brake pad is in an installed position and having at least one pad retaining feature on at least one lateral edge of the brake pad , the at least one pad retaining feature on at least one lateral edge of the brake pad being configured to retain the brake pad against radially outward motion when the brake pad is in the installed position; moving the brake pad in a radially-inward direction through a brake pad opening of the brake caliper when the brake caliper is in an operating position on the disc brake while maintaining the brake pad oriented as when in the installed position until the at least one pad retaining feature of the brake pad is aligned with at least one lateral brake pad receiving feature of the brake pad carrier oriented parallel to a brake disk rotation axis; moving the brake pad toward the brake disk to engage the at least one brake pad retaining feature with the at least one lateral brake pad receiving feature .
A tire repair method comprising: depositing a repair material made of at least unvulcanized rubber in a damaged part of a damaged tire; applying a heating pad on a surface of the repair material deposited in the damaged part of the tire; stuffing a plurality of stuffing members different in size in the tire in a circumferentially restricted part of the tire in which the repair material is deposited; fastening the circumferentially restricted part of the tire from outside thereof to apply a pressure thereto; and heating a repair site including the damaged part by heating the heating pad to vulcanize the unvulcanized rubber of the repair material, characterized in that : the repair material is deposited from a tire inside in a part facing the tire inside of the damaged part , and the heating pad is applied on an inside of the repair material; and the stuffing members (40; 50) include pad-adjoining stuffing members stuffed in a periphery of the heating pad , the pad-adjoining stuffing members (40s; 50, 51) being smaller than other stuffing members (40; 50) in a sectional area taken in a tire widthwise direction. depositing a repair material made of at least unvulcanized rubber in a damaged part of a damaged tire; applying a heating pad on a surface of the repair material deposited in the damaged part of the tire; stuffing a plurality of stuffing members different in size in the tire in a circumferentially restricted part of the tire in which the repair material is deposited; fastening the circumferentially restricted part of the tire from outside thereof to apply a pressure thereto; and heating a repair site including the damaged part by heating the heating pad to vulcanize the unvulcanized rubber of the repair material, characterized in that : the repair material is deposited from a tire inside in a part facing the tire inside of the damaged part , and the heating pad is applied on an inside of the repair material; and the stuffing members (40; 50) include pad-adjoining stuffing members stuffed in a periphery of the heating pad , the pad-adjoining stuffing members (40s; 50, 51) being smaller than other stuffing members (40; 50) in a sectional area taken in a tire widthwise direction. the repair material is deposited from a tire inside in a part facing the tire inside of the damaged part , and the heating pad is applied on an inside of the repair material; and the stuffing members (40; 50) include pad-adjoining stuffing members stuffed in a periphery of the heating pad , the pad-adjoining stuffing members (40s; 50, 51) being smaller than other stuffing members (40; 50) in a sectional area taken in a tire widthwise direction.
A system comprising: a controller configured to enable communication between one or more sensors and a processor, wherein the controller comprises: a plurality of input-output ports configured to couple to the one or more sensors , wherein each of the 10 ports is configured to couple to a plurality of sensor types, wherein each IO port is configured to couple to a first sensor of the one or more sensors and a second sensor or the one or more sensors , the first sensor comprises a first sensor type of the plurality of sensor types, and the second sensor comprises a second sensor type of the plurality of sensor types, and the first sensor type is different than the second sensor type; an interface configured to receive data indicative of the first or second sensor type and select a first mode if the first sensor type is selected and to select a second mode if the second sensor type is selected; and a switch block communicatively coupled to the interface , wherein the switch block comprises a plurality of switches, wherein each switch of the plurality of switches is configured to operate in a plurality of states, each state in the plurality of states is configured to couple one or more of the IO ports to the processor, and the plurality of switches operates according to a first set of respective states when the first mode is selected by the interface and a second set of respective states when the second mode is selected by the interface , and further comprising at least one differential amplifier configured to convert signals from the switch block to a level used by an interface of the processor. a plurality of input-output ports configured to couple to the one or more sensors , wherein each of the 10 ports is configured to couple to a plurality of sensor types, wherein each IO port is configured to couple to a first sensor of the one or more sensors and a second sensor or the one or more sensors , the first sensor comprises a first sensor type of the plurality of sensor types, and the second sensor comprises a second sensor type of the plurality of sensor types, and the first sensor type is different than the second sensor type; an interface configured to receive data indicative of the first or second sensor type and select a first mode if the first sensor type is selected and to select a second mode if the second sensor type is selected; and a switch block communicatively coupled to the interface , wherein the switch block comprises a plurality of switches, wherein each switch of the plurality of switches is configured to operate in a plurality of states, each state in the plurality of states is configured to couple one or more of the IO ports to the processor, and the plurality of switches operates according to a first set of respective states when the first mode is selected by the interface and a second set of respective states when the second mode is selected by the interface , and further comprising at least one differential amplifier configured to convert signals from the switch block to a level used by an interface of the processor.