mhurhangee/patent-ind-claim-en huggingface dataset:
A yarn winding machine comprising: a yarn supplying device adapted to supply a yarn (Y); a winding device adapted to wind the yarn (Y) supplied from the yarn supplying device to form a package (P); a yarn monitoring device including a capacitance sensor adapted to detect a state of the yarn (Y), and adapted to monitor a state of the travelling yarn (Y) using a detection result of the sensor ; an acquiring device adapted to acquire information relating to a charge amount of the yarn (Y); and a control device adapted to reflect the information relating to the charge amount of the yarn (Y) acquired by the acquiring device on a monitoring process of the yarn monitoring device ; wherein the information relating to the charge amount of the yarn (Y) is at least one of a tension value of the travelling yarn (Y), a tension applying state by a tension applying device adapted to apply tension on the yarn (Y), a humidity of a periphery of the yarn monitoring device , and a type of the yarn (Y); characterized in that the control device is configured to correct a state of the yarn (Y) detected by the sensor based on the information relating to the charge amount of the yarn (Y). a yarn supplying device adapted to supply a yarn (Y); a winding device adapted to wind the yarn (Y) supplied from the yarn supplying device to form a package (P); a yarn monitoring device including a capacitance sensor adapted to detect a state of the yarn (Y), and adapted to monitor a state of the travelling yarn (Y) using a detection result of the sensor ; an acquiring device adapted to acquire information relating to a charge amount of the yarn (Y); and a control device adapted to reflect the information relating to the charge amount of the yarn (Y) acquired by the acquiring device on a monitoring process of the yarn monitoring device ; wherein the information relating to the charge amount of the yarn (Y) is at least one of a tension value of the travelling yarn (Y), a tension applying state by a tension applying device adapted to apply tension on the yarn (Y), a humidity of a periphery of the yarn monitoring device , and a type of the yarn (Y); characterized in that the control device is configured to correct a state of the yarn (Y) detected by the sensor based on the information relating to the charge amount of the yarn (Y).
Cable ladder having two longitudinal members which are arranged at a distance from one another and are connected to one another by a multiplicity of rungs , the rungs being fastened in a form-fitting manner at their ends to the longitudinal members via shaped retaining lugs , characterized in that two mutually parallel slots are formed at each end of the rungs , the slots being offset with respect to one another in a longitudinal direction of the rungs, wherein one end region of each retaining lug is guided through one of the slots and the end regions of the retaining lugs are bent towards one another, the bent-over end regions overlapping in the longitudinal direction of the rungs and, in particular, lying flush next to one another.
A method of transmitting reference signals to a user equipment by a base station in a wireless communication system, the method comprising: configuring a first reference signal having a first time-axis density and a second reference signal having a second time-axis density, wherein the first reference signal is configured on a first partial band and the second reference signal is configured on a second partial band; transmitting subframe configuration information to the user equipment; and transmitting the configured reference signals to the user equipment based on the subframe configuration information, wherein a frequency of the first partial band is higher than a frequency of the second partial band; wherein the first time-axis density is higher than the second time-axis density, and wherein the subframe configuration information indicates whether each subframe is a 1 st type subframe having both the first reference signal and the second reference signal or a 2 nd type subframe having the second reference signal only. configuring a first reference signal having a first time-axis density and a second reference signal having a second time-axis density, wherein the first reference signal is configured on a first partial band and the second reference signal is configured on a second partial band; transmitting subframe configuration information to the user equipment; and transmitting the configured reference signals to the user equipment based on the subframe configuration information, wherein a frequency of the first partial band is higher than a frequency of the second partial band; wherein the first time-axis density is higher than the second time-axis density, and wherein the subframe configuration information indicates whether each subframe is a 1 st type subframe having both the first reference signal and the second reference signal or a 2 nd type subframe having the second reference signal only.
A method for producing a resistance spot weld joint for joining two or more steel sheets including at least one steel sheet having a tensile strength of 980 MPa or higher, the method involving placing the steel sheets on top of each other to form steel sheets to be welded, clamping the steel sheets with a pair of electrodes, and passing a current through the steel sheets while applying pressure thereto to join the steel sheets together, the method for producing the resistance spot weld joint comprising: an initial welding step of welding by passing a current I 1 (kA) satisfying relation while applying a welding force F 1 (kN) satisfying relation , 0.2 × √ t 1 < F 1 ≤ 4 × √ t 1 2 × √ F 1 < I 1 ≤ 10 × √ F 1 where ti is a total sheet thickness (mm) of the steel sheets to be welded; wherein a welding time in the initial welding step is 20 ms or more and within 100ms, and a main welding step of forming a nugget having a predetermined nugget diameter, wherein spatter for discharging a hydrogen source present at the interface of the steel sheets is produced within 100 ms of the start of welding in the initial welding step, wherein a welding voltage Vs (V) at the time of occurrence of the spatter satisfies relation , Vs ≥ 0 .8 × Va where Va is the welding voltage (V) 5 ms before the occurrence of spatter, and Vs is the welding voltage (V) at the time of occurrence of spatter. an initial welding step of welding by passing a current I 1 (kA) satisfying relation while applying a welding force F 1 (kN) satisfying relation , 0.2 × √ t 1 < F 1 ≤ 4 × √ t 1 2 × √ F 1 < I 1 ≤ 10 × √ F 1 where ti is a total sheet thickness (mm) of the steel sheets to be welded; wherein a welding time in the initial welding step is 20 ms or more and within 100ms, and a main welding step of forming a nugget having a predetermined nugget diameter, wherein spatter for discharging a hydrogen source present at the interface of the steel sheets is produced within 100 ms of the start of welding in the initial welding step, wherein a welding voltage Vs (V) at the time of occurrence of the spatter satisfies relation , Vs ≥ 0 .8 × Va where Va is the welding voltage (V) 5 ms before the occurrence of spatter, and Vs is the welding voltage (V) at the time of occurrence of spatter.
Acousto-optical modulator apparatus , being configured for acousto-optically deflecting a laser beam , comprising - a gas-filled volume including a working gas and having an input section and an output section , being arranged for receiving the laser beam along an incidence light path via the input section and for transmitting the laser beam along a deflection light path via the output section , and - an ultra-sound transducer device being arranged for creating an ultra-sound field intersecting the incidence light path in an interaction region within the gas-filled volume and creating a periodic density modulation of the working gas in the interaction region , wherein the ultra-sound transducer device is capable of deflecting the laser beam in the interaction region by Bragg-diffraction in the ultra-sound field , so that the deflection light path has a direction deviating from the direction of the incidence light path , - the ultra-sound transducer device is configured for focusing the ultra-sound field in the working gas in the interaction region , characterized in that - the gas-filled volume is arranged for keeping the working gas at a working pressure below 10 bar, and - the input section and the output section are capable of transmitting the laser beam with a laser centre wavelength included in a wavelength range from mid-IR to XUV. - a gas-filled volume including a working gas and having an input section and an output section , being arranged for receiving the laser beam along an incidence light path via the input section and for transmitting the laser beam along a deflection light path via the output section , and - an ultra-sound transducer device being arranged for creating an ultra-sound field intersecting the incidence light path in an interaction region within the gas-filled volume and creating a periodic density modulation of the working gas in the interaction region , wherein the ultra-sound transducer device is capable of deflecting the laser beam in the interaction region by Bragg-diffraction in the ultra-sound field , so that the deflection light path has a direction deviating from the direction of the incidence light path , - the ultra-sound transducer device is configured for focusing the ultra-sound field in the working gas in the interaction region , characterized in that - the gas-filled volume is arranged for keeping the working gas at a working pressure below 10 bar, and - the input section and the output section are capable of transmitting the laser beam with a laser centre wavelength included in a wavelength range from mid-IR to XUV.
A peptide comprising an amino acid sequence selected from the group of SEQ ID No. 6 or a pharmaceutically acceptable salt thereof, wherein said peptide has an overall length of up to 30 amino acids, wherein said peptide has the ability to bind to a molecule of the human major histocompatibility complex (MHC) class-I, and wherein said peptide, when bound to MHC, is capable of being recognized by CD8 T cells.
Reactor for the manufacture of interfacial polycarbonate by reacting phosgene and one or more bisphenols in a two-phase liquid reaction medium, the reactor comprising a reactor vessel and reactor internals, wherein at least part of the inner surface of the reactor and/or part of the surface of the reactor internals is manufactured from or cladded with a titanium alloy comprising palladium.
A controller area network, CAN, node comprising a unit , a CAN controller and a CAN transceiver, the unit configured to: detect a transmit signal edge on a transmit signal for the CAN transceiver ; detect a corresponding receive signal edge on a receive signal for the CAN controller ; and detect a CAN bus collision based on a plurality of propagation delays between respective signal edges on the transmit signal and corresponding signal edges on the receive signal , in which the transmit signal edge is a first transmit signal edge and the corresponding receive signal edge is a first receive signal edge , and characterized in that the unit is further configured to: detect a second transmit signal edge ; detect a second receive signal edge that corresponds to the second transmit signal edge ; determine a first propagation delay based on a period between the first transmit signal edge and the first receive signal edge ; determine a second propagation delay based on a period between the second transmit signal edge and the second receive signal edge ; detect a CAN bus collision based on a comparison between the first propagation delay and the second propagation delay . detect a transmit signal edge on a transmit signal for the CAN transceiver ; detect a corresponding receive signal edge on a receive signal for the CAN controller ; and detect a CAN bus collision based on a plurality of propagation delays between respective signal edges on the transmit signal and corresponding signal edges on the receive signal , in which the transmit signal edge is a first transmit signal edge and the corresponding receive signal edge is a first receive signal edge , and characterized in that the unit is further configured to: detect a second transmit signal edge ; detect a second receive signal edge that corresponds to the second transmit signal edge ; determine a first propagation delay based on a period between the first transmit signal edge and the first receive signal edge ; determine a second propagation delay based on a period between the second transmit signal edge and the second receive signal edge ; detect a CAN bus collision based on a comparison between the first propagation delay and the second propagation delay . detect a second transmit signal edge ; detect a second receive signal edge that corresponds to the second transmit signal edge ; determine a first propagation delay based on a period between the first transmit signal edge and the first receive signal edge ; determine a second propagation delay based on a period between the second transmit signal edge and the second receive signal edge ; detect a CAN bus collision based on a comparison between the first propagation delay and the second propagation delay .
A method for manufacturing a semiconductor device comprising: (A) a step of preparing a first structure including an adhesive laminate film having a heat-resistant resin layer , a flexible resin layer and an adhesive resin layer in this order, and a first semiconductor component adhered to the adhesive resin layer and having a first terminal ; (B) a step of performing solder reflow processing on the first structure in a state where the first semiconductor component is adhered to the adhesive resin layer ; and (C) a step of, after the step (B), peeling the heat-resistant resin layer from the adhesive laminate film , wherein a melting point of the heat-resistant resin layer is equal to or more than 200°C, or the heat-resistant resin layer has a decomposition temperature of equal to or more than 200°C, and wherein the flexible resin constituting the flexible resin layer contains one or more selected from the group consisting of a polyester elastomer, a polyamide elastomer, a polyimide elastomer, and a polybutylene terephthalate. (A) a step of preparing a first structure including an adhesive laminate film having a heat-resistant resin layer , a flexible resin layer and an adhesive resin layer in this order, and a first semiconductor component adhered to the adhesive resin layer and having a first terminal ; (B) a step of performing solder reflow processing on the first structure in a state where the first semiconductor component is adhered to the adhesive resin layer ; and (C) a step of, after the step (B), peeling the heat-resistant resin layer from the adhesive laminate film , wherein a melting point of the heat-resistant resin layer is equal to or more than 200°C, or the heat-resistant resin layer has a decomposition temperature of equal to or more than 200°C, and wherein the flexible resin constituting the flexible resin layer contains one or more selected from the group consisting of a polyester elastomer, a polyamide elastomer, a polyimide elastomer, and a polybutylene terephthalate.
A turbidimeter standard ampule (100A, 100B; 200; 300), comprising: a main part (102A, 102B; 202; 302) made of glass and containing therein a formazin solution comprising a formazine polymer diluted in a solvent; the main part comprising a lens positioned in a bottom thereof and permitting entry of light from a turbidimeter ; the main part having glass sides and permitting redirected light to exit the glass sides for detection by a photodetector of the turbidimeter; an upper part (101A, 101B; 201; 301) made of glass and being permanently joined by heat treatment to the main part (102A, 102b; 202; 302), thereby encapsulating or sealing the formazin standard therein; and an opaque covering or coating applied to the upper part of the ampule, or a cap piece (205; 305) formed of an opaque plastic material that fits onto the upper part of the ampule (200; 300) for blocking light from entering the upper part of the ampule. a main part (102A, 102B; 202; 302) made of glass and containing therein a formazin solution comprising a formazine polymer diluted in a solvent; the main part comprising a lens positioned in a bottom thereof and permitting entry of light from a turbidimeter ; the main part having glass sides and permitting redirected light to exit the glass sides for detection by a photodetector of the turbidimeter; an upper part (101A, 101B; 201; 301) made of glass and being permanently joined by heat treatment to the main part (102A, 102b; 202; 302), thereby encapsulating or sealing the formazin standard therein; and an opaque covering or coating applied to the upper part of the ampule, or a cap piece (205; 305) formed of an opaque plastic material that fits onto the upper part of the ampule (200; 300) for blocking light from entering the upper part of the ampule.
A device for detecting formation of water ice on a substrate , the device comprising: a first permanent magnet ; a second permanent magnet ; the first and second permanent magnets being spaced apart and arranged with a north pole of one magnet opposed to a south pole of the other magnet such that the first and second permanent magnets are normally attracted to each other; a container which contains a body of water within the space between the permanent magnets ; at least one of the permanent magnets being movable in the container relative to the other of the permanent magnets ; and a heat conductor arrangement for conducting heat between said substrate and the body of water in the container ; whereby as heat is conducted in use from the body of water in the container to said substrate by the heat conductor arrangement and the temperature of the body of water decreases below the temperature at which the density of water is a maximum, the volume of the body of water increases which drives the first and second permanent magnets apart from each other. a first permanent magnet ; a second permanent magnet ; the first and second permanent magnets being spaced apart and arranged with a north pole of one magnet opposed to a south pole of the other magnet such that the first and second permanent magnets are normally attracted to each other; a container which contains a body of water within the space between the permanent magnets ; at least one of the permanent magnets being movable in the container relative to the other of the permanent magnets ; and a heat conductor arrangement for conducting heat between said substrate and the body of water in the container ; whereby as heat is conducted in use from the body of water in the container to said substrate by the heat conductor arrangement and the temperature of the body of water decreases below the temperature at which the density of water is a maximum, the volume of the body of water increases which drives the first and second permanent magnets apart from each other.
A cooling circuit for a motor vehicle comprising a first cooling loop designed to ensure the thermoregulation of a first member and at least one second cooling loop (II) designed to ensure the thermoregulation of a second member, each cooling loop (I, II, III) designed to ensure the thermoregulation of a member being fluidly connected to a unique degassing box , characterized in that each cooling loop (I, II, III) designed to ensure the thermoregulation of a member comprises a degassing module provided with a hydrophobic porous element , comprising a porous diaphragm superimposed on a pre-filter medium , through which air bubbles, contained in said cooling loop (I, II, III) escape to join the degassing box .
Vehicle (100; 200; 300; 400) for transporting passengers, preferably a railway vehicle, comprising at least one item of furniture , such as a seat or a table, in a passenger compartment of said vehicle (100; 200; 300; 400): • said item of furniture : - comprising an electric circuit , and - being attached by means of at least one attachment rail provided in said passenger compartment ; • said electric circuit being powered, by a very low voltage electric signal, by means of at least one of said attachment rails , referred to as an electric attachment rail, and • at least one electric attachment rail being electrically conductive and carrying the electric signal; characterized in that the electric rail is formed by an electrically conductive structure designed to conduct the electric signal at very low voltage. • said item of furniture : - comprising an electric circuit , and - being attached by means of at least one attachment rail provided in said passenger compartment ; - comprising an electric circuit , and - being attached by means of at least one attachment rail provided in said passenger compartment ; • said electric circuit being powered, by a very low voltage electric signal, by means of at least one of said attachment rails , referred to as an electric attachment rail, and • at least one electric attachment rail being electrically conductive and carrying the electric signal;