mhurhangee/ep-ind-claims huggingface dataset:
A method for resource configuration performed by a terminal device, comprising: transmitting first information to a network device, wherein the first information comprises capability information, the capability information is for indicating a capability in simultaneous transmission and reception on multiple carriers, the multiple carriers comprises a first-type carrier and a second-type carrier, the first-type carrier is configured to transmit data on a Sidelink, SL, and the second-type carrier is configured to transmit data on at least one of an Uplink, UL, a Downlink, DL, and the SL; the method characterized in that it further comprises: receiving second information from the network device, wherein the second information is for indicating a first transmission resource, allocated by the network device, for the first-type carrier and the second-type carrier and for indicating a valid time of the first transmission resource; determining a second transmission resource for aggregated data transmission on the multiple carriers based on the first transmission resource according to a Channel Busy Ratio, CBR, of each of the multiple carriers; and transmitting data on the second transmission resource within the valid time of the first transmission resource. transmitting first information to a network device, wherein the first information comprises capability information, the capability information is for indicating a capability in simultaneous transmission and reception on multiple carriers, the multiple carriers comprises a first-type carrier and a second-type carrier, the first-type carrier is configured to transmit data on a Sidelink, SL, and the second-type carrier is configured to transmit data on at least one of an Uplink, UL, a Downlink, DL, and the SL; the method characterized in that it further comprises: receiving second information from the network device, wherein the second information is for indicating a first transmission resource, allocated by the network device, for the first-type carrier and the second-type carrier and for indicating a valid time of the first transmission resource; determining a second transmission resource for aggregated data transmission on the multiple carriers based on the first transmission resource according to a Channel Busy Ratio, CBR, of each of the multiple carriers; and transmitting data on the second transmission resource within the valid time of the first transmission resource. receiving second information from the network device, wherein the second information is for indicating a first transmission resource, allocated by the network device, for the first-type carrier and the second-type carrier and for indicating a valid time of the first transmission resource; determining a second transmission resource for aggregated data transmission on the multiple carriers based on the first transmission resource according to a Channel Busy Ratio, CBR, of each of the multiple carriers; and transmitting data on the second transmission resource within the valid time of the first transmission resource.
An impact absorbing member having an impact absorbing portion that absorbs impact energy by being axially crashed and buckled, wherein the impact absorbing portion is made of a steel sheet comprising: a chemical composition consisting of, by mass%, C: at least 0.08% and at most 0.30%, Mn: at least 1.5% and at most 3.5%, Si + Al: at least 0.50% and at most 3.0%, P: at most 0.10%, S: at most 0.010%, N: at most 0.010%, Cr: 0 to at most 0.5%, Mo: 0 to at most 0.5%, B: 0 to at most 0.01%, Ti: 0 to less than 0.04%, Nb: 0 to less than 0.030%, V: 0 to less than 0.5%, Ca: 0 to at most 0.010%, Mg: 0 to at most 0.010%, REM: 0 to at most 0.050%, and Bi: 0 to at most 0.050%, the remainder being Fe and impurities; a microstructure containing, by area%, bainite: more than 50%, martensite: at least 3% and at most 30%, and retained austenite: at least 3% and at most 15%, the remainder consisting of ferrite having an average grain diameter of less than 5 μm; and mechanical properties in which the product of uniform elongation and hole expansion ratio is at least 300% 2, and an effective flow stress when 5% true strain is applied is at least 900 MPa. a chemical composition consisting of, by mass%, C: at least 0.08% and at most 0.30%, Mn: at least 1.5% and at most 3.5%, Si + Al: at least 0.50% and at most 3.0%, P: at most 0.10%, S: at most 0.010%, N: at most 0.010%, Cr: 0 to at most 0.5%, Mo: 0 to at most 0.5%, B: 0 to at most 0.01%, Ti: 0 to less than 0.04%, Nb: 0 to less than 0.030%, V: 0 to less than 0.5%, Ca: 0 to at most 0.010%, Mg: 0 to at most 0.010%, REM: 0 to at most 0.050%, and Bi: 0 to at most 0.050%, the remainder being Fe and impurities; a microstructure containing, by area%, bainite: more than 50%, martensite: at least 3% and at most 30%, and retained austenite: at least 3% and at most 15%, the remainder consisting of ferrite having an average grain diameter of less than 5 μm; and mechanical properties in which the product of uniform elongation and hole expansion ratio is at least 300% 2, and an effective flow stress when 5% true strain is applied is at least 900 MPa.
Method for manufacturing a polylactide product via rotational moulding, comprising the following steps: a) placing at least polylactide in a mould; b) subjecting the polylactide to rotational moulding that comprises heating to a temperature of between 150 °C and 230 °C; c) cooling the mould and/or the product obtained; d) releasing the product from the mould, characterized in that - (i) the polylactide is in the form of particles having a size of between 20 μm and 2000 μm and in that the optical purity of the polylactide is higher than 92 weight %, - (ii) the cooling of the mould and/or of the product obtained at step (c) takes place in a single step down to a temperature of between ambient temperature and a temperature lower than 100 °C and - (iii) the cooling of the mould and/or product obtained at step (c) comprises the following steps: cooling down to a temperature of between 100 °C and 150 °C; holding this temperature for 1 to 60 minutes; cooling down to a temperature of between ambient temperature and a temperature lower than 100 °C. a) placing at least polylactide in a mould; b) subjecting the polylactide to rotational moulding that comprises heating to a temperature of between 150 °C and 230 °C; c) cooling the mould and/or the product obtained; d) releasing the product from the mould, - (i) the polylactide is in the form of particles having a size of between 20 μm and 2000 μm and in that the optical purity of the polylactide is higher than 92 weight %, - (ii) the cooling of the mould and/or of the product obtained at step (c) takes place in a single step down to a temperature of between ambient temperature and a temperature lower than 100 °C and - (iii) the cooling of the mould and/or product obtained at step (c) comprises the following steps: cooling down to a temperature of between 100 °C and 150 °C; holding this temperature for 1 to 60 minutes; cooling down to a temperature of between ambient temperature and a temperature lower than 100 °C. cooling down to a temperature of between 100 °C and 150 °C; holding this temperature for 1 to 60 minutes; cooling down to a temperature of between ambient temperature and a temperature lower than 100 °C.
A touch input processor, comprising: a touch coordinate acquisition unit to acquire the coordinate position of a touch point on a touch panel; an area determination unit to determine whether or not the coordinate position of a touch point is present within an enlarging operation area on the touch panel, part of the touch panel being defined as the enlarging operation area used to operate the whole area of the touch panel; a drag determination unit to determine if a touch point has been dragged; said touch input processor characterized by: an operation mode switching unit to switch, when the coordinate position of a touch point is present within the enlarging operation area and the touch point has been dragged, the operation mode for touch input from a normal operation mode to an enlarging operation mode; and a touch coordinate transformation unit to transform, when the operation mode is switched to the enlarging operation mode, the coordinates of an actual touch point within the enlarging operation area into the coordinates of a virtual touch point for an entire area of the touch panel. a touch coordinate acquisition unit to acquire the coordinate position of a touch point on a touch panel; an area determination unit to determine whether or not the coordinate position of a touch point is present within an enlarging operation area on the touch panel, part of the touch panel being defined as the enlarging operation area used to operate the whole area of the touch panel; a drag determination unit to determine if a touch point has been dragged; said touch input processor characterized by: an operation mode switching unit to switch, when the coordinate position of a touch point is present within the enlarging operation area and the touch point has been dragged, the operation mode for touch input from a normal operation mode to an enlarging operation mode; and a touch coordinate transformation unit to transform, when the operation mode is switched to the enlarging operation mode, the coordinates of an actual touch point within the enlarging operation area into the coordinates of a virtual touch point for an entire area of the touch panel. an operation mode switching unit to switch, when the coordinate position of a touch point is present within the enlarging operation area and the touch point has been dragged, the operation mode for touch input from a normal operation mode to an enlarging operation mode; and a touch coordinate transformation unit to transform, when the operation mode is switched to the enlarging operation mode, the coordinates of an actual touch point within the enlarging operation area into the coordinates of a virtual touch point for an entire area of the touch panel.
A method of forming a spectral purity filter, comprising: providing on a substrate a multilayer stack comprising a plurality of alternating layers, the multilayer stack being configured to be reflective to extreme ultraviolet radiation; and forming a layer of radiation sensitive material on the multilayer stack; characterised by exposing on the radiation sensitive material a pattern of radiation formed by radiation interference; developing the radiation sensitive material to form a patterned mask on the multilayer stack; and etching the surface of the multilayer stack on which the mask is formed in order to form a textured surface; wherein the interference pattern is formed from a narrowband source of UV radiation using an etalon and the method further comprises forming a coating on the multilayer stack, wherein the coating comprises a metal selected from the group consisting of Ru, Pd, Pt, Rh, Ro, Ti, Au, Mo, Zr, Cu, Fe, Cr, Ni, Zn, and Ag. providing on a substrate a multilayer stack comprising a plurality of alternating layers, the multilayer stack being configured to be reflective to extreme ultraviolet radiation; and forming a layer of radiation sensitive material on the multilayer stack; characterised by exposing on the radiation sensitive material a pattern of radiation formed by radiation interference; developing the radiation sensitive material to form a patterned mask on the multilayer stack; and etching the surface of the multilayer stack on which the mask is formed in order to form a textured surface; wherein the interference pattern is formed from a narrowband source of UV radiation using an etalon and the method further comprises forming a coating on the multilayer stack, wherein the coating comprises a metal selected from the group consisting of Ru, Pd, Pt, Rh, Ro, Ti, Au, Mo, Zr, Cu, Fe, Cr, Ni, Zn, and Ag.
A device for amplifying electromagnetic radiation, comprising a radiation source for generating the electromagnetic radiation and an amplifier for amplifying the generated electromagnetic radiation, wherein the electromagnetic radiation propagating in the amplifier is polarised largely non-linearly, specifically elliptically or circularly, characterised in that the amplifier (14, 24, 34) of the electromagnetic radiation impresses a non-linear phase, caused by non-linear effects, which is reduced compared to the non-linear phase with linear polarisation of the electromagnetic radiation, and wherein the amplifier (14, 24, 34) comprises an optically isotropic medium, wherein the optically isotropic medium is a waveguide or a gas.
A consumption meter arranged to measure a flow rate of a fluid, the consumption meter comprising: - a flow tube with a through-going opening for passage of the fluid between an inlet and an outlet, - first and second ultrasonic transducers (T1, T2) arranged at a wall of the flow tube for transmitting and receiving ultrasonic signals transmitted through the fluid, - a control circuit comprising a flow measurement sub-circuit arranged for operating the first and second ultrasonic transducers (T1, T2), and being arranged to generate a signal indicative of the flow rate of the fluid from the transmitted and received ultrasonic signals transmitted through the fluid, and - a communication module arranged for communicating said signal indicative of the flow rate of the fluid, characterised in that the control circuit further comprises a noise measurement sub-circuit, arranged for generating a signal indicative of a noise level of the flow tube or of the fluid therein by means of operating both of the first and second ultrasonic transducers (T1, T2) to detect the acoustic signals of the flow tube or of the fluid therein, wherein the noise measurement sub-circuit is arranged to process an output from the transducers (T1, T2) for detection of acoustic signals over a period of time, and to accordingly calculate at least one single value indicative of an average noise level, and in that the communication module is arranged for communicating data representing at least one value indicative of the noise level of the flow tube. - a flow tube with a through-going opening for passage of the fluid between an inlet and an outlet, - first and second ultrasonic transducers (T1, T2) arranged at a wall of the flow tube for transmitting and receiving ultrasonic signals transmitted through the fluid, - a control circuit comprising a flow measurement sub-circuit arranged for operating the first and second ultrasonic transducers (T1, T2), and being arranged to generate a signal indicative of the flow rate of the fluid from the transmitted and received ultrasonic signals transmitted through the fluid, and - a communication module arranged for communicating said signal indicative of the flow rate of the fluid, the control circuit further comprises a noise measurement sub-circuit, arranged for generating a signal indicative of a noise level of the flow tube or of the fluid therein by means of operating both of the first and second ultrasonic transducers (T1, T2) to detect the acoustic signals of the flow tube or of the fluid therein, wherein the noise measurement sub-circuit is arranged to process an output from the transducers (T1, T2) for detection of acoustic signals over a period of time, and to accordingly calculate at least one single value indicative of an average noise level, and in that the communication module is arranged for communicating data representing at least one value indicative of the noise level of the flow tube.
A mat shaped mineral wool insulation element (7, 9), comprising a mineral wool mat (4, 6) which includes a wire grid at least on one main surface of the mineral wool mat (4, 6), wherein the insulation material element (7, 9) includes a mineral wool mat (4 or 6) made from a plurality of mineral wool mats (4, 6) that are individualized and arranged on at least one wire grid web with a gap or space between end faces of the mineral wool mats (4, 6), wherein the mineral wool mats (4, 6) are connected with one another by the wire grid web, characterized in that the insulation material element (7, 9) is formed by a separation cut through the wire grid web in the portion of the gap which separation cut is performed at one end face of the mineral wool mats (4, 6) in the wire grid web so that only a one sided protruding overlapping portion is formed for the individualized mineral wool mat (4, 6). the insulation material element (7, 9) includes a mineral wool mat (4 or 6) made from a plurality of mineral wool mats (4, 6) that are individualized and arranged on at least one wire grid web with a gap or space between end faces of the mineral wool mats (4, 6), wherein the mineral wool mats (4, 6) are connected with one another by the wire grid web, characterized in that the insulation material element (7, 9) is formed by a separation cut through the wire grid web in the portion of the gap which separation cut is performed at one end face of the mineral wool mats (4, 6) in the wire grid web so that only a one sided protruding overlapping portion is formed for the individualized mineral wool mat (4, 6).
A method of sending a supplementary services message in a communications network, the method comprising: sending an Interrogation marker from a Home Location Register node in a Circuit Switched network to a subscriber's Mobile-services Switching Centre/Visitor Location Register, the Interrogation marker informing the Mobile-services Switching Centre/Visitor Location Register that all supplementary services messages received at the Mobile-services Switching Centre/Visitor Location Register from a user terminal are to be sent to the Home Location Register node; receiving, at the Home Location Register node, all of said supplementary services messages sent from the subscriber's Mobile-services Switching Centre/Visitor Location Register; retrieving an address of an IP Multimedia Subsystem Application Server associated with the subscriber, the Application Server used for handling supplementary service requests; sending all of said supplementary services messages to the addressed Application Server. sending an Interrogation marker from a Home Location Register node in a Circuit Switched network to a subscriber's Mobile-services Switching Centre/Visitor Location Register, the Interrogation marker informing the Mobile-services Switching Centre/Visitor Location Register that all supplementary services messages received at the Mobile-services Switching Centre/Visitor Location Register from a user terminal are to be sent to the Home Location Register node; receiving, at the Home Location Register node, all of said supplementary services messages sent from the subscriber's Mobile-services Switching Centre/Visitor Location Register; retrieving an address of an IP Multimedia Subsystem Application Server associated with the subscriber, the Application Server used for handling supplementary service requests; sending all of said supplementary services messages to the addressed Application Server.
Method of setting pipe diameters of a refrigerating device for delivering refrigerant discharged from a compressor to a first heat exchanger, expanding the refrigerant condensed in the first heat exchanger by expanding means, thereafter delivering the refrigerant through a first communication pipe to a second heat exchanger, and returning the refrigerant vaporized in the second heat exchanger through a second communication pipe to the compressor, wherein R32 is used as single refrigerant or a mixed refrigerant containing at least 70 percent R32 by weight is used as the refrigerant, characterised by: setting a diameter of the first communication pipe to 2/8 inch (6.4 mm); and setting a diameter of the second communication pipe to 4/8 inch (12.7 mm), respectively, over a whole refrigerating capacity range of 4.5 to 7.1 kW. setting a diameter of the first communication pipe to 2/8 inch (6.4 mm); and setting a diameter of the second communication pipe to 4/8 inch (12.7 mm), respectively, over a whole refrigerating capacity range of 4.5 to 7.1 kW.
NTC thin film thermistor having at least one first thin film electrode, at least one NTC thin film, which has a monocrystalline or polycrystalline functional ceramic with a spinel structure or a perovskite structure, and at least one second thin film electrode, characterized in that the NTC thin film thermistor has a plurality of first and second thin film electrodes (3a, 3b), and wherein each NTC thin film is arranged between the first thin film electrodes and the second thin film electrodes, the first thin film electrodes on a first side of the NTC thin film thermistor overhang with respect to the NTC thin film and the second thin film electrodes on the first side are shortened with respect to the NTC thin film and the second thin film electrodes on a second side of the NTC thin film thermistor, which is opposite the first side, overhang with respect to the NTC thin film and the first thin film electrodes on the second side are shortened with respect to the NTC thin film. the NTC thin film thermistor has a plurality of first and second thin film electrodes (3a, 3b), and wherein each NTC thin film is arranged between the first thin film electrodes and the second thin film electrodes, the first thin film electrodes on a first side of the NTC thin film thermistor overhang with respect to the NTC thin film and the second thin film electrodes on the first side are shortened with respect to the NTC thin film and the second thin film electrodes on a second side of the NTC thin film thermistor, which is opposite the first side, overhang with respect to the NTC thin film and the first thin film electrodes on the second side are shortened with respect to the NTC thin film.
A closed loop method for the manufacture of a prepreg and/or laminate comprising: i) conducting a step of a prepreg and/or laminate manufacturing process; ii) measuring at least two properties of the prepreg and/or laminate, said at least two properties including surface topography and porosity; iii) analyzing the measured at least two properties including the measured porosity and the measured topography to provide data indicative of the effect of any defects in the green state prepreg and/or laminate on the number and severity of defects in the corresponding cured part and/or the impact of any such defects on the cured part strength; iv) adjusting the manufacturing process according to the analysis of the measured at least two properties and the data indicative of the effect of any defects. i) conducting a step of a prepreg and/or laminate manufacturing process; ii) measuring at least two properties of the prepreg and/or laminate, said at least two properties including surface topography and porosity; iii) analyzing the measured at least two properties including the measured porosity and the measured topography to provide data indicative of the effect of any defects in the green state prepreg and/or laminate on the number and severity of defects in the corresponding cured part and/or the impact of any such defects on the cured part strength; iv) adjusting the manufacturing process according to the analysis of the measured at least two properties and the data indicative of the effect of any defects.