mhurhangee/ep-ind-claims huggingface dataset:
A circuit board assembly comprising: a multiple layer substrate; a wireless power transmitter control module supported by a layer of the multiple layer substrate; and a wireless power coil assembly comprising one or more wireless power transmit coils fabricated on an inner layer of the multiple layer substrate; the circuit board assembly being characterized by comprising at least one integrated circuit, IC, (12, 14, 254, 258, 273, 275, 282) mounted on an outer layer of the multiple layer substrate; wherein: the at least one IC (12, 14, 254, 258, 273, 275, 282) comprises at least one wireless power receive coil, is aligned to substantially overlap the wireless power coil assembly, and is configured to be wirelessly powered by the wireless power transmitter control module via the at least one or more wireless power receive coil; the at least one IC (12, 14, 254, 258, 273, 275, 282) is supported by a die; and the at least one wireless power receive coil is arranged on the die. a multiple layer substrate; a wireless power transmitter control module supported by a layer of the multiple layer substrate; and a wireless power coil assembly comprising one or more wireless power transmit coils fabricated on an inner layer of the multiple layer substrate; the circuit board assembly being characterized by comprising at least one integrated circuit, IC, (12, 14, 254, 258, 273, 275, 282) mounted on an outer layer of the multiple layer substrate; wherein: the at least one IC (12, 14, 254, 258, 273, 275, 282) comprises at least one wireless power receive coil, is aligned to substantially overlap the wireless power coil assembly, and is configured to be wirelessly powered by the wireless power transmitter control module via the at least one or more wireless power receive coil; the at least one IC (12, 14, 254, 258, 273, 275, 282) is supported by a die; and the at least one wireless power receive coil is arranged on the die. the at least one IC (12, 14, 254, 258, 273, 275, 282) comprises at least one wireless power receive coil, is aligned to substantially overlap the wireless power coil assembly, and is configured to be wirelessly powered by the wireless power transmitter control module via the at least one or more wireless power receive coil; the at least one IC (12, 14, 254, 258, 273, 275, 282) is supported by a die; and the at least one wireless power receive coil is arranged on the die.
A monitoring system for measuring flow in a vessel, comprising: - an intra-vascular support device for positioning within the vessel; - a sensor-actuator device for generating a sensor signal related to the flow, the sensor-actuator device being mounted to the support device and operable between a non-deployed position in which it is against the support device and a deployed position in which it is displaced away from the support device; - a controller for controlling actuation of the sensor-actuator and for receiving the sensor signal from the sensor-actuator, the controller being configured to: - operate the sensor-actuator device between the non-deployed position and the deployed position; and - receive the sensor signal when the sensor-actuator device is in the deployed position. - an intra-vascular support device for positioning within the vessel; - a sensor-actuator device for generating a sensor signal related to the flow, the sensor-actuator device being mounted to the support device and operable between a non-deployed position in which it is against the support device and a deployed position in which it is displaced away from the support device; - a controller for controlling actuation of the sensor-actuator and for receiving the sensor signal from the sensor-actuator, the controller being configured to: - operate the sensor-actuator device between the non-deployed position and the deployed position; and - receive the sensor signal when the sensor-actuator device is in the deployed position. - operate the sensor-actuator device between the non-deployed position and the deployed position; and - receive the sensor signal when the sensor-actuator device is in the deployed position.
A vehicle comprising an electric power assisted steering (EPAS) system, characterized in that the EPAS system is configured to use at least an approximation of a torque contribution (Tweight) to the steering wheel torque caused by the presence of one or more weights (W 1, W 2) disposed in the steering wheel in an off-centre position to compensate for that torque contribution ( Tweight) by computing a corrected value of steering wheel torque from a detected value of steering wheel torque and/or to compensate for that torque contribution ( Tweight) by computing a corrected value of assistive motor torque.
A method performed by a user equipment, UE, in a mobile communication network, for system information acquisition, comprising: receiving from the mobile communication network one or more sets of system information, SI, information elements, corresponding SI IDs and corresponding one or more value tags; storing the sets of SI information elements, the corresponding SI IDs and the corresponding one or more value tags in the UE storage by the UE, wherein each stored set of SI information elements is associated with the corresponding stored SI ID and one or more value tags; receiving an applicable SI ID and one or more value tags associated with a set of required SI information elements from a serving entity; determining whether there is any stored set of SI information elements that is valid for the applicable SI ID, wherein a valid set of SI information elements includes a SI ID and one or more value tags matching to the applicable SI ID and one or more value tags; and applying a stored set of SI information elements when the stored set of SI information elements is determined to be valid for the applicable SI ID; SI ID values are stored for multiple public land mobile networks, PLMNs, and an SI ID indicates an SI area that applies the same SI configuration; characterized by handling separate SI ID values for different PLNMs, wherein even though a stored SI ID value is the same as an applicable SI ID value, the stored SI ID value and the applicable SI ID value are considered to be different when the stored SI ID value and the applicable SI ID value refer to different PLMNs. receiving from the mobile communication network one or more sets of system information, SI, information elements, corresponding SI IDs and corresponding one or more value tags; storing the sets of SI information elements, the corresponding SI IDs and the corresponding one or more value tags in the UE storage by the UE, wherein each stored set of SI information elements is associated with the corresponding stored SI ID and one or more value tags; receiving an applicable SI ID and one or more value tags associated with a set of required SI information elements from a serving entity; determining whether there is any stored set of SI information elements that is valid for the applicable SI ID, wherein a valid set of SI information elements includes a SI ID and one or more value tags matching to the applicable SI ID and one or more value tags; and applying a stored set of SI information elements when the stored set of SI information elements is determined to be valid for the applicable SI ID; SI ID values are stored for multiple public land mobile networks, PLMNs, and an SI ID indicates an SI area that applies the same SI configuration; characterized by handling separate SI ID values for different PLNMs, wherein even though a stored SI ID value is the same as an applicable SI ID value, the stored SI ID value and the applicable SI ID value are considered to be different when the stored SI ID value and the applicable SI ID value refer to different PLMNs.
A process for manufacturing an element sensitive to at least one physical parameter of a fluid flow, comprising a single immersion cycle making it possible for a pre-assembled sensitive element to become an assembled sensitive element, the single immersion cycle comprising immersion of a core of the pre-assembled sensitive element in molten glass, said molten glass being glass in liquid form and at high temperature, said core comprising at least two longitudinal channels through which pass longitudinally at least two conductive connecting wires connecting to an at least bifilar winding said winding being suitable for forming a resistive or inductive circuit for detecting said physical parameter, said immersion making it possible to seal the connecting wires in the channels, fill said channels and coat the outside of the core in a single immersion, the core being, at the end of said single immersion cycle, sealed and coated, said single cycle comprising a first sub-step, consisting of rapidly lowering the pre-assembled sensitive element in the furnace to above the high-temperature molten glass in order to pre-heat the core; a second sub-step, comprising a step of partial immersion, at a first slow speed, i.e., a few millimeters per second, and a pause during which the core is thus left partially immersed; a third step, consisting in immersing the core completely in the molten glass in order to obtain the assembled sensitive element; a fourth sub-step, consisting in raising the assembled sensitive element at a slow speed, i.e., a few millimeters per second; a fifth sub-step, consisting in raising the assembled sensitive element at a fast speed, i.e., two to ten times faster than the slow raising speed, in order to quickly and completely remove the core from the furnace.
A dose indicator comprising, a chassis comprising a chassis frame and a displacement portion comprising a drive part to engage an indexable first display unit indexable about a first display axis, the indexable first display unit comprising a drive tooth to drive an indexable second display unit indexable about a second display axis, the second display axis being non-coaxial with the first display axis, the indexable second display unit comprising two or more second display unit indexing teeth, wherein the drive tooth and each of the second display unit indexing teeth comprise lips on their respective engagement surfaces, the drive tooth lip having a surface facing radially inward that engages a second display unit indexing tooth at an engagement angle relative to a radial axis of the indexable second display unit that produces a resultant force acting to pull the first display unit and second display unit together.
Non-coloring and non-oxidizing cosmetic composition comprising: - one or more sulfate, sulfonate or carboxylic anionic surfactants, - one or more solid fatty alcohols, and - one or more solid fatty esters of monoalcohols, said sulfate, sulfonate or carboxylic anionic surfactant(s) being such that at least 50% by weight of them comprise fatty chains containing a number of carbon atoms greater than or equal to 14. - one or more sulfate, sulfonate or carboxylic anionic surfactants, - one or more solid fatty alcohols, and - one or more solid fatty esters of monoalcohols,
A method for use in wireless communications, the method comprising: receiving a sounding packet at a station, STA, configured to support a Very High Throughput, VHT, transmission; and transmitting, from the STA, an Action No Acknowledgement, ACK, frame that includes a Very High Throughput, VHT, multiple input multiple output, MIMO, Control field and a VHT Compressed Beamforming Report field, wherein the VHT MIMO Control field indicates a channel width related to a multi-channel non-contiguous spectrum transmission, and wherein the VHT Compressed Beamforming Report field includes an average signal to noise ratio, SNR, for each of a number of space-time streams where the number of space-time streams are indicated in the VHT MIMO Control field as a number of columns in a matrix. receiving a sounding packet at a station, STA, configured to support a Very High Throughput, VHT, transmission; and transmitting, from the STA, an Action No Acknowledgement, ACK, frame that includes a Very High Throughput, VHT, multiple input multiple output, MIMO, Control field and a VHT Compressed Beamforming Report field, wherein the VHT MIMO Control field indicates a channel width related to a multi-channel non-contiguous spectrum transmission, and wherein the VHT Compressed Beamforming Report field includes an average signal to noise ratio, SNR, for each of a number of space-time streams where the number of space-time streams are indicated in the VHT MIMO Control field as a number of columns in a matrix.
A method for producing a metal laminate material by bonding two sheets, one sheet composed of a material M1 and the other sheet composed of a material M2, M1 being a stainless steel, Ti or a titanium alloy, or Mo or a molybdenum alloy, M2 being Al or an aluminum alloy, wherein the method comprises the steps of: subjecting the faces to be bonded of the two sheets to sputtering treatment with inert gas ions under vacuum such that oxide layers on surface layers remain, wherein an etching amount by sputtering treatment on a face to be bonded is 1 nm to 10 nm in terms of SiO 2, i.e. energy sufficient to etch 1 nm to 10 nm of SiO 2 is applied; temporarily bonding the two sheets by roll pressure bonding; and conducting a thermal treatment to thereby bond the two sheets; and wherein Tm1 > Tm2 where Tm1 in Kelvin is the melting point of M1 and Tm2 in Kelvin is the melting point of M2, the temperature of the thermal treatment is 0.45Tm2 or more and less than 0.45Tml, provided that the temperature is not more than Tm2, and wherein the remains of the oxide layers are confirmable by observing peaks derived from oxygen in the front and back of the temporarily bonded laminate material interface by Auger electron spectrometer. subjecting the faces to be bonded of the two sheets to sputtering treatment with inert gas ions under vacuum such that oxide layers on surface layers remain, wherein an etching amount by sputtering treatment on a face to be bonded is 1 nm to 10 nm in terms of SiO 2, i.e. energy sufficient to etch 1 nm to 10 nm of SiO 2 is applied; temporarily bonding the two sheets by roll pressure bonding; and conducting a thermal treatment to thereby bond the two sheets; and wherein Tm1 > Tm2 where Tm1 in Kelvin is the melting point of M1 and Tm2 in Kelvin is the melting point of M2, the temperature of the thermal treatment is 0.45Tm2 or more and less than 0.45Tml, provided that the temperature is not more than Tm2, and wherein the remains of the oxide layers are confirmable by observing peaks derived from oxygen in the front and back of the temporarily bonded laminate material interface by Auger electron spectrometer.
A turbine blade having an open cavity at its distal tip, said cavity being defined by a bottom wall and a side wall (9, 10) extending along the perimeter of said distal tip in the extension of the pressure side and suction side walls of the blade, the side wall (9, 10) of the cavity having an opening in the vicinity of the leading edge of the blade opening into the cavity, characterized in that a deflector extends at least in the median portion of the cavity between the leading edge and the trailing edge.
A module for depressurizing, collecting and storing a gaseous layer portion (g) from at least one vehicle cryogenic tank (100, 111, 112), said cryogenic tank (100, 111, 112) comprising at least one valve, said gaseous layer being the gaseous phase of a gaseous energy source, said cryogenic tank containing, furthermore to said gaseous layer (g), a liquid layer which is the liquid phase of a gaseous energy source, said module consisting in a sealed assembly for which there is no emission of gas, functionally self-supporting and transportable, comprising: - an intake intended to be connected, by a removable intake line, to an orifice of said tank (100, 111, 112) for evacuating a gaseous layer portion from said cryogenic tank, - an outlet intended to be connected, by a removable outlet line, to an external system capable of using said gaseous layer portion once evacuated, - a heater connected to said intake of the module, - a damper buffer tank, connected to the heater, and also to - a compressor, connected to said buffer tank, and also to - a storage means connected to said compressor and to said outlet of said module, said storage means enabling said evacuated gaseous layer portion to be stored. - an intake intended to be connected, by a removable intake line, to an orifice of said tank (100, 111, 112) for evacuating a gaseous layer portion from said cryogenic tank, - an outlet intended to be connected, by a removable outlet line, to an external system capable of using said gaseous layer portion once evacuated, - a heater connected to said intake of the module, - a damper buffer tank, connected to the heater, and also to - a compressor, connected to said buffer tank, and also to - a storage means connected to said compressor and to said outlet of said module, said storage means enabling said evacuated gaseous layer portion to be stored.
A method of manufacturing a shoe, the method comprising: preparing a flexible shell having an internal space; preparing an upper body in a form of a bag, the upper body being provided with an opening in a portion corresponding to a topline; preparing a sole body; forming the upper body with a last being located in the upper body; taking the last out of the formed upper body; and inserting the sole body in the shell, wherein: a) the method comprises accommodating the upper body in the shell, and partially fixing the shell and the upper body, and thereafter performing the forming of the upper body with the last located in the upper body accommodated in the shell; or b) the method further comprises accommodating the formed upper body in the shell and partially fixing the shell and the formed upper body. preparing a flexible shell having an internal space; preparing an upper body in a form of a bag, the upper body being provided with an opening in a portion corresponding to a topline; preparing a sole body; forming the upper body with a last being located in the upper body; taking the last out of the formed upper body; and inserting the sole body in the shell, wherein: a) the method comprises accommodating the upper body in the shell, and partially fixing the shell and the upper body, and thereafter performing the forming of the upper body with the last located in the upper body accommodated in the shell; or b) the method further comprises accommodating the formed upper body in the shell and partially fixing the shell and the formed upper body. a) the method comprises accommodating the upper body in the shell, and partially fixing the shell and the upper body, and thereafter performing the forming of the upper body with the last located in the upper body accommodated in the shell; or b) the method further comprises accommodating the formed upper body in the shell and partially fixing the shell and the formed upper body.
A method of manufacturing an electrochemical biosensor, the method comprising: providing a base material (80, 104, 106, 1106) having a first layer (92, 98) of a first electrically conductive material positioned substantially side by side to and in electrical contact with a second layer (94, 100) of a second electrically conductive material; removing at least a portion of the first layer and the second layer to form an electrical pattern on the base material, the electrical pattern including a first region (70, 1022, 1328, 1428) formed from the first electrically conductive material electrically connected to a second region (72, 1024, 1332, 1432) formed from the second electrically conductive material, the first region of the electrical pattern comprising at least one electrode (37, 38, 39), repeating the removing step a plurality of times at spaced intervals along the base material to form a base substrate web having a plurality of the electrical patterns thereon, depositing a reagent layer on the base substrate web over at least a portion of the at least one electrode of each electrical pattern of the plurality of electrical patterns; laminating at least one covering layer (28, 30) or a spacing layer over the base substrate web, thereby forming covers and sample receiving chambers for individual biosensors to be formed; and cutting through the at least one covering layer or spacing layer and the base substrate web to form a plurality of biosensors. providing a base material (80, 104, 106, 1106) having a first layer (92, 98) of a first electrically conductive material positioned substantially side by side to and in electrical contact with a second layer (94, 100) of a second electrically conductive material; removing at least a portion of the first layer and the second layer to form an electrical pattern on the base material, the electrical pattern including a first region (70, 1022, 1328, 1428) formed from the first electrically conductive material electrically connected to a second region (72, 1024, 1332, 1432) formed from the second electrically conductive material, the first region of the electrical pattern comprising at least one electrode (37, 38, 39), repeating the removing step a plurality of times at spaced intervals along the base material to form a base substrate web having a plurality of the electrical patterns thereon, depositing a reagent layer on the base substrate web over at least a portion of the at least one electrode of each electrical pattern of the plurality of electrical patterns; laminating at least one covering layer (28, 30) or a spacing layer over the base substrate web, thereby forming covers and sample receiving chambers for individual biosensors to be formed; and cutting through the at least one covering layer or spacing layer and the base substrate web to form a plurality of biosensors.
A method for controlling a power supply system, wherein the power supply system comprises N photovoltaic strings, a direct current voltage conversion unit, an inverter unit, and a controller, the N photovoltaic strings are configured to convert optical energy into a direct current, the direct current voltage conversion unit is configured to convert voltage of the direct current output by the N photovoltaic strings, the inverter unit is configured to convert the direct current output by the direct current voltage conversion unit into an alternating current and supply power to a power grid, and the method comprises: - determining, by the controller, that the N photovoltaic strings meet the following condition: ∑ i = 1 N P max i > P out, wherein P max ( i) represents maximum power point power corresponding to each of the N photovoltaic strings in previous maximum power point tracking MPPT, and P out represents scheduling power of the inverter unit; and - controlling, by the controller, the direct current voltage conversion unit to enable X photovoltaic strings in the N photovoltaic strings to be in an MPPT state, and N - X photovoltaic strings to be in a power output limited state, based on the determining, such that N ≥ 2, 1 ≤ X ≤ N - 1, both N and X are positive integers, and the X photovoltaic strings meet the following condition: ∑ i = 1 X P max i ≤ P out. - determining, by the controller, that the N photovoltaic strings meet the following condition: ∑ i = 1 N P max i > P out, wherein P max ( i) represents maximum power point power corresponding to each of the N photovoltaic strings in previous maximum power point tracking MPPT, and P out represents scheduling power of the inverter unit; and - controlling, by the controller, the direct current voltage conversion unit to enable X photovoltaic strings in the N photovoltaic strings to be in an MPPT state, and N - X photovoltaic strings to be in a power output limited state, based on the determining, such that N ≥ 2, 1 ≤ X ≤ N - 1, both N and X are positive integers, and the X photovoltaic strings meet the following condition: ∑ i = 1 X P max i ≤ P out.