mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing an aluminum alloy product, comprising: continuously casting an aluminum alloy to form a slab, wherein the aluminum alloy comprises 0.26 - 2.82 wt. % Si, 0.06 - 0.60 wt. % Fe, 0.26 - 2.37 wt. % Cu, 0.06 - 0.57 wt. % Mn, 0.52 - 1.18 wt. % Mg, 0 - 0.21 wt. % Cr, 0 - 0.009 wt. % Zn, 0 - 0.09 wt. % Ti, up to 0.20 wt. % Zr and up to 0.15 wt. % of impurities, with the remainder Al; and hot rolling the slab to a final gauge without cold rolling the slab prior to the final gauge. continuously casting an aluminum alloy to form a slab, wherein the aluminum alloy comprises 0.26 - 2.82 wt. % Si, 0.06 - 0.60 wt. % Fe, 0.26 - 2.37 wt. % Cu, 0.06 - 0.57 wt. % Mn, 0.52 - 1.18 wt. % Mg, 0 - 0.21 wt. % Cr, 0 - 0.009 wt. % Zn, 0 - 0.09 wt. % Ti, up to 0.20 wt. % Zr and up to 0.15 wt. % of impurities, with the remainder Al; and hot rolling the slab to a final gauge without cold rolling the slab prior to the final gauge.
A ballistic protective helmet comprising a shell comprising a shell material that is produced from a number of textile layers connected in a connection matrix, characterized in that the shell has a blind hole , wherein a threaded sleeve is introduced into the blind hole , wherein the threaded sleeve has an outer thread that penetrates into the shell material which surrounds the blind hole in a peripheral direction, and wherein the threaded sleeve has an inner thread for connecting to a screwing means having an outer thread .
A cable modem, comprising: an amplifier configured to amplify a received signal received at a receiver of the cable modem; an analog-to-digital converter, ADC, configured to convert the amplified received signal to a digital signal; a plurality of band-pass filters, each filter being configured to filter the digital signal to a specific frequency band for one of a plurality of channels; a power meter configured to measure a power of the filtered digital signal on each of the plurality of channels; and a control unit configured to estimate a maximum expected power that the cable modem is expected to receive on the plurality of channels based on the measured power and calculate a gain of the amplifier by dividing an ADC full scale power by the estimated maximum expected power and set the gain of the amplifier accordingly, wherein the ADC full scale power is a power at an input of the ADC corresponding to its maximum digital output, wherein the cable modem is configured to operate in a full duplex mode such that each of the plurality of channels is assigned for either upstream or downstream. an amplifier configured to amplify a received signal received at a receiver of the cable modem; an analog-to-digital converter, ADC, configured to convert the amplified received signal to a digital signal; a plurality of band-pass filters, each filter being configured to filter the digital signal to a specific frequency band for one of a plurality of channels; a power meter configured to measure a power of the filtered digital signal on each of the plurality of channels; and a control unit configured to estimate a maximum expected power that the cable modem is expected to receive on the plurality of channels based on the measured power and calculate a gain of the amplifier by dividing an ADC full scale power by the estimated maximum expected power and set the gain of the amplifier accordingly, wherein the ADC full scale power is a power at an input of the ADC corresponding to its maximum digital output, wherein the cable modem is configured to operate in a full duplex mode such that each of the plurality of channels is assigned for either upstream or downstream.
Lighting or headlamp device for a vehicle, comprising a lighting module comprising: - at least one light device comprising at least one light-emitting unit , - two electric terminals connected to the light-emitting unit , - a conductive plate comprising a cavity for receiving the light device , characterized in that the lighting module further comprises: - a heat sink support for the light device , - an adhesive part placed between the heat sink support and the conductive plate , and in that the two electric terminals are connected to the conductive plate by a point-to-point wire connection . - at least one light device comprising at least one light-emitting unit , - two electric terminals connected to the light-emitting unit , - a conductive plate comprising a cavity for receiving the light device , - a heat sink support for the light device , - an adhesive part placed between the heat sink support and the conductive plate ,
Device estimating the total mass of a motor vehicle comprising a first module for estimating the total mass ( M algo ) of the motor vehicle as a function of the dynamic parameters of the vehicle and a second module for estimating the total mass ( M deb ) of the vehicle as a function of values of the displacement of each of the suspensions of the vehicle measured by displacement sensors , characterized in that the device comprises a system for recalibrating the displacement sensors embedded on the motor vehicle and the system for recalibrating the displacement sensors comprises a module for statistically comparing the total mass values ( M algo , M deb ) estimated respectively by the first module and the second module for estimating the mass.
An apparatus comprising: a protection circuit to selectively optically connect one of a first optical path and a second optical path; an optical data receiver connected to receive through the protection circuit selectively from one of the first and second optical paths (140B, 150 A) an optical input signal modulated with first data, the protection circuit being optically connected between the first and second optical paths and the optical data receiver; and an optical data transmitter connected to transmit through the protection circuit to third and fourth optical paths an optical output signal modulated with second data, the protection circuit being optically connected between the third and fourth optical paths and the optical data transmitter; wherein the optical data transmitter is configured to generate the optical output signal to carry a first dither tone in response to being signaled by the optical data receiver of a path failure; and wherein the protection circuit is configured to change the selection of the one of optical paths from which the optical data receiver receives the optical input signal in response to detecting the first dither tone in the optical output signal. a protection circuit to selectively optically connect one of a first optical path and a second optical path; an optical data receiver connected to receive through the protection circuit selectively from one of the first and second optical paths (140B, 150 A) an optical input signal modulated with first data, the protection circuit being optically connected between the first and second optical paths and the optical data receiver; and an optical data transmitter connected to transmit through the protection circuit to third and fourth optical paths an optical output signal modulated with second data, the protection circuit being optically connected between the third and fourth optical paths and the optical data transmitter; wherein the optical data transmitter is configured to generate the optical output signal to carry a first dither tone in response to being signaled by the optical data receiver of a path failure; and wherein the protection circuit is configured to change the selection of the one of optical paths from which the optical data receiver receives the optical input signal in response to detecting the first dither tone in the optical output signal.
An absorbent article for a pet animal having a longitudinal direction (Y), a lateral direction (X), a thickness direction (Z), a body facing surface, and a body non-facing surface, and comprising a ventral region , a dorsal region , an intermediate region and an absorbent layer having an absorbent core and a rear end , wherein the absorbent article further comprises a cutting line for forming a tail opening positioned adjacent to the rear end of the absorbent layer in the intermediate region , and an indicator positioned on the body non-facing surface of the absorbent layer and to show a color reaction by coming in contact with urine excreted by the pet animal, the absorbent layer is positioned between the cutting line and the ventral region , the absorbent core has a front end edge opposite to the cutting line and a rear end edge opposite to the front end edge in the longitudinal direction (Y), characterised in that : the indicator is positioned longitudinally outboard of at least the rear end edge of the absorbent core . the absorbent article further comprises a cutting line for forming a tail opening positioned adjacent to the rear end of the absorbent layer in the intermediate region , and an indicator positioned on the body non-facing surface of the absorbent layer and to show a color reaction by coming in contact with urine excreted by the pet animal, the absorbent layer is positioned between the cutting line and the ventral region , the absorbent core has a front end edge opposite to the cutting line and a rear end edge opposite to the front end edge in the longitudinal direction (Y), characterised in that : the indicator is positioned longitudinally outboard of at least the rear end edge of the absorbent core .
A method for assembling a dispensing system for dispensing a fluid medium stored under pressure, the method including: - providing a valve cup including a valve and a bag , the valve configured to attach to an opening of the bag , wherein the valve cup is formed from a metal or rigid material and includes a lining formed from a first plastic being a polyester, wherein the polyester lining is provided at at least a portion of the valve cup that faces a container when assembled, wherein the polyester lining is either held by the valve cup or is coated onto the valve cup ; - inserting the valve into the opening of the bag and fluidly sealing the bag to the valve ; - providing the container , the container including an opening and suitable for storing a fluid medium under pressure and formed, at least in part, from a second plastic; - inserting the bag into the container and positioning the valve cup at the opening of the container ; - pressurising the internal volume of the container ; and - welding the valve cup to the container to thereby provide a seal between the valve cup and the opening of the container . - providing a valve cup including a valve and a bag , the valve configured to attach to an opening of the bag , wherein the valve cup is formed from a metal or rigid material and includes a lining formed from a first plastic being a polyester, wherein the polyester lining is provided at at least a portion of the valve cup that faces a container when assembled, wherein the polyester lining is either held by the valve cup or is coated onto the valve cup ; wherein the polyester lining is provided at at least a portion of the valve cup that faces a container when assembled, wherein the polyester lining is either held by the valve cup or is coated onto the valve cup ; - inserting the valve into the opening of the bag and fluidly sealing the bag to the valve ; - providing the container , the container including an opening and suitable for storing a fluid medium under pressure and formed, at least in part, from a second plastic; - inserting the bag into the container and positioning the valve cup at the opening of the container ; - pressurising the internal volume of the container ; and - welding the valve cup to the container to thereby provide a seal between the valve cup and the opening of the container .
A packaging material comprising a core material layer having an area radially extending from an edge of a hole in said core material layer, wherein the core material layer is made from paper, paperboard or cardboard, characterized in that said area has a linearly or non-linearly decreasing core material layer thickness profile towards the edge of the hole.
A bioelectrode comprising a silver coating layer provided on a conductive silicone rubber electrode , wherein the conductive silicone rubber electrode is composed of a silicone rubber containing conductive carbon particles, the silver coating layer is composed of silicone rubber and at least one of agglomerated silver powder and flake-like silver powder, and the silver coating layer has electrical conductivity and ionic conductivity, characterized in that ions exist between particles of the silver powder to allow the silver coating layer to have the ionic conductivity. the conductive silicone rubber electrode is composed of a silicone rubber containing conductive carbon particles, the silver coating layer is composed of silicone rubber and at least one of agglomerated silver powder and flake-like silver powder, and the silver coating layer has electrical conductivity and ionic conductivity, characterized in that ions exist between particles of the silver powder to allow the silver coating layer to have the ionic conductivity.
System for establishing the spatial positioning of jaws during dental treatments, comprising: - a screw with a self-tapping end and a head , and - an abutment with a series of characterizing points, said points allowing to combine different images of the jaw captured over time, wherein both the screw and the abutment comprise coupling means for coupling to one another, wherein said coupling means in turn comprise: - a removable retention system between the screw and the abutment , and - an unequivocal positioning system such that the screw and the abutment are always positioned exactly the same with respect to one another when they are coupled and such that it prevents relative movements from occurring between them once they are coupled, characterized in that the abutment comprises: - a smaller base having a cavity inside which the coupling means for coupling to the screw are located, and - a larger base, wherein said larger base: - has an area which is at least twice the area enclosed by the perimeter of the smaller base; and - comprises at least three notches on its perimetral edge such that two of them are located at the two points of said perimetral edge farthest away from one another. - a screw with a self-tapping end and a head , and - an abutment with a series of characterizing points, said points allowing to combine different images of the jaw captured over time, - a removable retention system between the screw and the abutment , and - an unequivocal positioning system such that the screw and the abutment are always positioned exactly the same with respect to one another when they are coupled and such that it prevents relative movements from occurring between them once they are coupled, - a smaller base having a cavity inside which the coupling means for coupling to the screw are located, and - a larger base, wherein said larger base: - has an area which is at least twice the area enclosed by the perimeter of the smaller base; and - comprises at least three notches on its perimetral edge such that two of them are located at the two points of said perimetral edge farthest away from one another. - has an area which is at least twice the area enclosed by the perimeter of the smaller base; and - comprises at least three notches on its perimetral edge such that two of them are located at the two points of said perimetral edge farthest away from one another.
A test bench for measuring forces and torques of rotatably mounted bodies in charging devices, the test bench comprising: a rotatably mounted body of a charging device, a measuring component , and a bearing device for mounting the measuring component , characterized in that the bearing device is configured in such a way that the measuring component is frictionlessly mounted in the bearing device , and in that the measuring component is a measuring shaft which moves frictionlessly in the bearing device in the axial direction and can rotate around the longitudinal axis of the shaft in order to enable direct measurements of both a friction torque and also an axial force. a rotatably mounted body of a charging device, a measuring component , and a bearing device for mounting the measuring component , characterized in that the bearing device is configured in such a way that the measuring component is frictionlessly mounted in the bearing device , and in that the measuring component is a measuring shaft which moves frictionlessly in the bearing device in the axial direction and can rotate around the longitudinal axis of the shaft in order to enable direct measurements of both a friction torque and also an axial force.
A method for diagnosing lung cancer in a subject, the method comprising: (a) generating circulating tumor cell (CTC) data from a blood sample obtained from the subject based on a direct analysis of CTCs detected in the context of surrounding nucleated cells present in the sample in the absence of enrichment of the CTCs prior to detection, comprising immunofluorescent staining and morphological characteristics of nucleated cells in said sample, wherein CTCs are identified in the context of surrounding nucleated cells based on a combination of said immunofluorescent staining and morphological characteristics, wherein the generation of said CTC data comprises enumeration of CTCs in the blood sample, and wherein a positive diagnosis of lung cancer comprises detection of at least 7.5 CTCs/mL of blood; (b) obtaining clinical data for said subject; and (c) combining said CTC data with said clinical data to diagnose lung cancer in said subject. (a) generating circulating tumor cell (CTC) data from a blood sample obtained from the subject based on a direct analysis of CTCs detected in the context of surrounding nucleated cells present in the sample in the absence of enrichment of the CTCs prior to detection, comprising immunofluorescent staining and morphological characteristics of nucleated cells in said sample, wherein CTCs are identified in the context of surrounding nucleated cells based on a combination of said immunofluorescent staining and morphological characteristics, wherein the generation of said CTC data comprises enumeration of CTCs in the blood sample, and wherein a positive diagnosis of lung cancer comprises detection of at least 7.5 CTCs/mL of blood; (b) obtaining clinical data for said subject; and (c) combining said CTC data with said clinical data to diagnose lung cancer in said subject.
An apparatus comprising an actuator for a high lift device of an aircraft including a motor and a transmission , the transmission including a first gear stage and a second gear stage , the first gear stage including a first worm gear and the second gear stage including a second worm gear , wherein the first and second worm gears have a backdrive efficiency sufficiently small such that the resistive forces and torques of the motor can compensate or withstand the remaining backdrive force to prevent backdrive of the actuator; characterized in that the first worm gear has a first lead angle and the second worm gear has a second lead angle larger than the first lead angle.
A method for producing wood fiber from forest residue , the method comprising: filtering at least a portion of a forest residue feed into: a first large-elements feed having a first maximum element size; and a small-elements feed having a second maximum element size that is smaller than the first maximum element size; sorting at least a first portion of the first large-elements feed into a first wood fiber-elements feed and a first bark-elements feed having a lower aggregate wood fiber content than that of the first wood fiber-elements feed; and size-reducing at least a portion of the first bark-elements feed to produce a reduced-size bark-elements feed; filtering at least a portion of the reduced-size bark-elements feed into the first portion of the first large-elements feed and at least a portion of the small-elements feed. filtering at least a portion of a forest residue feed into: a first large-elements feed having a first maximum element size; and a small-elements feed having a second maximum element size that is smaller than the first maximum element size; a first large-elements feed having a first maximum element size; and a small-elements feed having a second maximum element size that is smaller than the first maximum element size; sorting at least a first portion of the first large-elements feed into a first wood fiber-elements feed and a first bark-elements feed having a lower aggregate wood fiber content than that of the first wood fiber-elements feed; and size-reducing at least a portion of the first bark-elements feed to produce a reduced-size bark-elements feed; filtering at least a portion of the reduced-size bark-elements feed into the first portion of the first large-elements feed and at least a portion of the small-elements feed.
Method for network edge computing, network edge computing also being referred to as MEC, i.e. mobile edge computing, the method comprising a learning phase (I) and an operational phase (II), wherein in the learning phase: a) computational task requests are transmitted by the mobile terminals to a network edge host, referred to as MEH; b) generative models of input data, capable of generating input data for the computational tasks which they may be asked to perform by way of request, are trained on the basis of input data provided by selected requests from the computational task requests, said input data being real data; and the parameters of these generative models are stored at the network edge; and during the operational phase: c) when a mobile terminal transmits a computational task request to said MEH, the latter verifies whether the input data of this computational task are already modelled by a generative model and, d) if yes, the MEH checks whether a result of the computational task on the basis of synthetic input data issued by the generative model identified during the verification performed in step c) is already available in a cache memory, said result then being read from this memory by the MEH; e) if not, the MEH generates synthesis input data using the generative model associated with the computational task and calculates a result on the basis of said synthesis input data; f) in both cases, the MEH transmits said result to the mobile terminal. a) computational task requests are transmitted by the mobile terminals to a network edge host, referred to as MEH; b) generative models of input data, capable of generating input data for the computational tasks which they may be asked to perform by way of request, are trained on the basis of input data provided by selected requests from the computational task requests, said input data being real data; and the parameters of these generative models are stored at the network edge; and during the operational phase: c) when a mobile terminal transmits a computational task request to said MEH, the latter verifies whether the input data of this computational task are already modelled by a generative model and, d) if yes, the MEH checks whether a result of the computational task on the basis of synthetic input data issued by the generative model identified during the verification performed in step c) is already available in a cache memory, said result then being read from this memory by the MEH; e) if not, the MEH generates synthesis input data using the generative model associated with the computational task and calculates a result on the basis of said synthesis input data; f) in both cases, the MEH transmits said result to the mobile terminal.