mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing at least one spiral spring comprising the following successive steps: a) providing a substrate extending in a determined plane (P) and bearing a first layer parallel to the determined plane (P), b) forming at least one through hole in the first layer , c) depositing a second layer on the first layer , the second layer filling the at least one through hole to form at least one bridge of material , d) etching at least one spiral spring in an etching layer consisting of the second layer or of the substrate , the one among the second layer and the substrate in which the at least one spiral spring is not etched forming a support , the at least one bridge of material linking the at least one spiral spring to the support perpendicularly to the determined plane (P) and being distributed over substantially the whole length of the or each spiral spring , e) eliminating the first layer , the at least one spiral spring remaining attached to the support by the at least one bridge of material , f) subjecting the at least one spiral spring to at least one thermal treatment, g) detaching the at least one spiral spring from the support . a) providing a substrate extending in a determined plane (P) and bearing a first layer parallel to the determined plane (P), b) forming at least one through hole in the first layer , c) depositing a second layer on the first layer , the second layer filling the at least one through hole to form at least one bridge of material , d) etching at least one spiral spring in an etching layer consisting of the second layer or of the substrate , the one among the second layer and the substrate in which the at least one spiral spring is not etched forming a support , the at least one bridge of material linking the at least one spiral spring to the support perpendicularly to the determined plane (P) and being distributed over substantially the whole length of the or each spiral spring , e) eliminating the first layer , the at least one spiral spring remaining attached to the support by the at least one bridge of material , f) subjecting the at least one spiral spring to at least one thermal treatment, g) detaching the at least one spiral spring from the support .
Access control system to a device protected by at least one pre-configured authentication factor, each authentication factor defining at least one validity criterion for a key and being in a state referred to as unlocked if a key that is presented to it meets the validity criteria, and a state referred to as locked if no key that is presented to it meets the validity criteria, comprising: - an access control unit comprising: - a short-range wireless communication device , comprising a wireless data transmission module and an electrical energy collection module , - a module for receiving keys, adapted to receive at least one key, - a module for verifying factors, adapted to verify the validity of each pre-configured authentication factor with at least one key received by the module for receiving keys, and to provide an access authorisation if all the authentication factors are in the unlocked state, - at least one access path , adapted to allow access to the protected device , - at least one controllable switch , configured to open or close the path for accessing the protected device , the access path being, by default, closed and being open in case of receiving an access authorisation coming from the module for verifying factors, - an administration unit , adapted to allow to pre-configure each authentication factor by interaction with the wireless data transmission module of the communication device of the access control unit , - a user unit , different from the administration unit , configured to transmit at least one key to the module for receiving keys, via the wireless data transmission module . - an access control unit comprising: - a short-range wireless communication device , comprising a wireless data transmission module and an electrical energy collection module , - a module for receiving keys, adapted to receive at least one key, - a module for verifying factors, adapted to verify the validity of each pre-configured authentication factor with at least one key received by the module for receiving keys, and to provide an access authorisation if all the authentication factors are in the unlocked state, - at least one access path , adapted to allow access to the protected device , - at least one controllable switch , configured to open or close the path for accessing the protected device , the access path being, by default, closed and being open in case of receiving an access authorisation coming from the module for verifying factors, - an administration unit , adapted to allow to pre-configure each authentication factor by interaction with the wireless data transmission module of the communication device of the access control unit , - a user unit , different from the administration unit , configured to transmit at least one key to the module for receiving keys, via the wireless data transmission module .
A system for forming a liquid liner of a cavity, the system comprising: a vessel having an outer wall ; a rotating member positioned inside the vessel and rotatable about an axis of rotation , the rotating member comprising: i. a first end and a second end along the axis of rotation ; ii. an inner surface defining an interior volume; iii. an outer surface having a shape that is a function of a shape of the inner surface ; and iv. a plurality of fluid passages each having an inboard opening at the inner surface and an outboard opening at the outer surface ; a rotating driver operationally coupled to the rotating member to rotate the rotating member; and a liquid medium in the vessel, the liquid medium at least partially filling the fluid passages and forming a liquid liner when the rotating member is rotating, an inner interface of the liquid liner defining a cavity coaxial with the axis of rotation , characterized by the inner interface being curved with respect to the axis of rotation such that the inner surface of the rotating member curves inwardly towards each of the first end and the second end . a vessel having an outer wall ; a rotating member positioned inside the vessel and rotatable about an axis of rotation , the rotating member comprising: i. a first end and a second end along the axis of rotation ; ii. an inner surface defining an interior volume; iii. an outer surface having a shape that is a function of a shape of the inner surface ; and iv. a plurality of fluid passages each having an inboard opening at the inner surface and an outboard opening at the outer surface ; i. a first end and a second end along the axis of rotation ; ii. an inner surface defining an interior volume; iii. an outer surface having a shape that is a function of a shape of the inner surface ; and iv. a plurality of fluid passages each having an inboard opening at the inner surface and an outboard opening at the outer surface ; a rotating driver operationally coupled to the rotating member to rotate the rotating member; and a liquid medium in the vessel, the liquid medium at least partially filling the fluid passages and forming a liquid liner when the rotating member is rotating, an inner interface of the liquid liner defining a cavity coaxial with the axis of rotation , characterized by the inner interface being curved with respect to the axis of rotation such that the inner surface of the rotating member curves inwardly towards each of the first end and the second end .
Method for correcting a fluorescence image, comprising the following steps: - illuminating an object using an excitation light source ; - detecting fluorescence radiation with a fluorescence-image sensor , the fluorescence radiation being emitted by the object under the effect of said illumination; - acquiring said fluorescence image ( I fluo ) with said fluorescence-image sensor on the basis of the detected fluorescence radiation ; and - applying an illuminance correction function ( f , f d ) to the fluorescence image ( I fluo ), said correction function using an illuminance image ( M , M d , M' d , M G,d ) representative of the spatial distribution of an illuminance ( Φ ) produced, on the object , by the excitation light source , the method being characterized in that it includes a step of measuring a distance ( d ) between the excitation source and the object , the correction function ( f d ) being dependent on the measured distance (d), and using an illuminance image ( M d , M' d , M G,d ) associated with said distance ( d ), the correction function being such that two illuminance images ( M d' , M d" ) respectively associated with two different distances ( d ', d ") are representative of two spatial distributions of illuminance that are different from each other and non-uniform. - illuminating an object using an excitation light source ; - detecting fluorescence radiation with a fluorescence-image sensor , the fluorescence radiation being emitted by the object under the effect of said illumination; - acquiring said fluorescence image ( I fluo ) with said fluorescence-image sensor on the basis of the detected fluorescence radiation ; and - applying an illuminance correction function ( f , f d ) to the fluorescence image ( I fluo ), said correction function using an illuminance image ( M , M d , M' d , M G,d ) representative of the spatial distribution of an illuminance ( Φ ) produced, on the object , by the excitation light source ,
A method of controlling a moving-robot, the method characterised by comprising: performing a plurality of driving processes at different points in time for acquiring information; creating a plurality of maps respectively based on the information acquired in one of the driving processes, the maps having different generation-time information; choosing one of the created maps based on current time information and the generation-time information of the maps, and performing location recognition based on the chosen map. performing a plurality of driving processes at different points in time for acquiring information; creating a plurality of maps respectively based on the information acquired in one of the driving processes, the maps having different generation-time information; choosing one of the created maps based on current time information and the generation-time information of the maps, and performing location recognition based on the chosen map.
An injection head having a silencing function for use in a gas-type fire extinguisher having a piping for providing a fire-extinguishing gas in a fire-extinguishing area, the injection head comprising: an injector head main body forming a connecting part for connecting to said piping, an orifice plate having an orifice for passing the fire extinguishing gas disposed in said injection head main body, and a silencing member of block shapes formed of porous material capable of passing the fire extinguishing gas disposed at the outlet side of the orifice plate for releasing the fire extinguishing gas; characterised in that said orifice plate is mounted detachably in said injector head main body through an upstream opening of said connecting part of said injector head main body , the orifice plate thereby located between the silencing member and the upstream opening . an injector head main body forming a connecting part for connecting to said piping, an orifice plate having an orifice for passing the fire extinguishing gas disposed in said injection head main body, and a silencing member of block shapes formed of porous material capable of passing the fire extinguishing gas disposed at the outlet side of the orifice plate for releasing the fire extinguishing gas; characterised in that said orifice plate is mounted detachably in said injector head main body through an upstream opening of said connecting part of said injector head main body , the orifice plate thereby located between the silencing member and the upstream opening .
A method for managing an electronic device associated with a user and implemented by a server, comprising: p- obtaining (C0) a current authentication code, q- receiving (C5) an entered authentication code associated with the electronic device, r- detecting (C7) a predefined status of the electronic device from the current authentication code and the entered authentication code, if the entered authentication code can be obtained by application to the current authentication code of a predefined function associated with the predefined status, wherein steps p to r are implemented for the first time at a first instant, and at a second instant subsequent to the first instant, steps p to r are repeated, the current authentication codes being determined during steps p by taking into account the instant, step p comprises obtaining a first plurality of current authentication codes each associated with a window, step r being implemented for at least one current authentication code of the first plurality of current authentication codes, and characterized in that if the predefined status detected at the first instant or at the second instant is a status in which a module for determining the instant of the electronic device is faulty, then for subsequent instants step p comprises obtaining a second plurality of current authentication codes each associated with a window, the second plurality having a higher cardinality than the first plurality. p- obtaining (C0) a current authentication code, q- receiving (C5) an entered authentication code associated with the electronic device, r- detecting (C7) a predefined status of the electronic device from the current authentication code and the entered authentication code, if the entered authentication code can be obtained by application to the current authentication code of a predefined function associated with the predefined status,
A pulp mixture comprising: a lignocellulosic material; at least 80 wt.%, based on the total weight of said pulp mixture, of water; lignin; an inorganic salt selected from the group consisting of NaOH, Na 2 S, Na 2 CO 3 , Na 2 SO 4 , Na 2 S 2 O 3 and combinations thereof; and, a copolymer comprising two or more structural units chosen from ethylene oxide units, propylene oxide units, (meth)acrylic acid units, ethyl acrylate units, and combinations thereof; wherein said copolymer is free of silicone-containing structural units; and, wherein said lignin is present in an amount of greater than 150 ppm, based on a total weight of said pulp mixture. a lignocellulosic material; at least 80 wt.%, based on the total weight of said pulp mixture, of water; lignin; an inorganic salt selected from the group consisting of NaOH, Na 2 S, Na 2 CO 3 , Na 2 SO 4 , Na 2 S 2 O 3 and combinations thereof; and, a copolymer comprising two or more structural units chosen from ethylene oxide units, propylene oxide units, (meth)acrylic acid units, ethyl acrylate units, and combinations thereof; wherein said copolymer is free of silicone-containing structural units; and, wherein said lignin is present in an amount of greater than 150 ppm, based on a total weight of said pulp mixture.
Adaptive brake assist system for a cyclist on a bicycle by an haptic feedback, comprising: - a first sensor for measuring the angular speed (ω 1 ) of a first wheel of the bicycle, adapted to generate a signal representative of the angular speed of the first wheel ; - an actuator mountable to a portion of the bicycle, adapted to generate vibrations; - a control module configured for generating a command signal of the actuator , so that the actuator vibrates with a vibration frequency (f), based on at least said signal representative of the angular speed of the first wheel (ω 1 ) and based on one or more reference magnitudes (η ref ); characterized in that it further comprises: - a learning module configured for determining, updating and delivering to the control module said one or more reference magnitudes (η ref ) based on at least the signal representative of the angular speed (ω 1 ) of the first wheel , wherein the learning module comprises: a module for sensing the braking configured for sensing when the cyclist is braking and for outputting a signal representative of the braking presence, and a braking classifying module , configured for classifying each braking event as sensed by the braking sensing module based on at least the signal representative of the angular speed of the first wheel (ω 1 ), and for delivering one or more parameters representative of such classification of the braking. - a first sensor for measuring the angular speed (ω 1 ) of a first wheel of the bicycle, adapted to generate a signal representative of the angular speed of the first wheel ; - an actuator mountable to a portion of the bicycle, adapted to generate vibrations; - a control module configured for generating a command signal of the actuator , so that the actuator vibrates with a vibration frequency (f), based on at least said signal representative of the angular speed of the first wheel (ω 1 ) and based on one or more reference magnitudes (η ref ); - a learning module configured for determining, updating and delivering to the control module said one or more reference magnitudes (η ref ) based on at least the signal representative of the angular speed (ω 1 ) of the first wheel , wherein the learning module comprises: a module for sensing the braking configured for sensing when the cyclist is braking and for outputting a signal representative of the braking presence, and a braking classifying module , configured for classifying each braking event as sensed by the braking sensing module based on at least the signal representative of the angular speed of the first wheel (ω 1 ), and for delivering one or more parameters representative of such classification of the braking. a module for sensing the braking configured for sensing when the cyclist is braking and for outputting a signal representative of the braking presence, and a braking classifying module , configured for classifying each braking event as sensed by the braking sensing module based on at least the signal representative of the angular speed of the first wheel (ω 1 ), and for delivering one or more parameters representative of such classification of the braking.
A charging device , comprising: a charging receiving terminal , configured to receive a first alternating input; a voltage adjusting circuit , having an input end coupled to the charging receiving terminal , and comprising: a first rectifier , configured to rectify the first alternating input and output a first voltage with a first ripple waveform; a switch unit , configured to modulate the first voltage according to a control signal to obtain a modulated first voltage; a transformer , configured to output a plurality of voltages with ripple waveforms according to the modulated first voltage; and a compositing unit , configured to composite the plurality of voltages to output a second alternating output; wherein an output end of the voltage adjusting circuit is configured to be coupled to a battery such that the second alternating output is applied to the battery , and for each cycle of the second alternating output, a peak voltage of a positive half is greater than an absolute value of a valley voltage of a negative half; and a central control module , configured to output the control signal to the switch unit so as to adjust voltage and/or current of the second alternating output outputted by the voltage adjusting circuit , in response to a charging requirement of the battery . a charging receiving terminal , configured to receive a first alternating input; a voltage adjusting circuit , having an input end coupled to the charging receiving terminal , and comprising: a first rectifier , configured to rectify the first alternating input and output a first voltage with a first ripple waveform; a switch unit , configured to modulate the first voltage according to a control signal to obtain a modulated first voltage; a transformer , configured to output a plurality of voltages with ripple waveforms according to the modulated first voltage; and a compositing unit , configured to composite the plurality of voltages to output a second alternating output; wherein a first rectifier , configured to rectify the first alternating input and output a first voltage with a first ripple waveform; a switch unit , configured to modulate the first voltage according to a control signal to obtain a modulated first voltage; a transformer , configured to output a plurality of voltages with ripple waveforms according to the modulated first voltage; and a compositing unit , configured to composite the plurality of voltages to output a second alternating output; wherein an output end of the voltage adjusting circuit is configured to be coupled to a battery such that the second alternating output is applied to the battery , and for each cycle of the second alternating output, a peak voltage of a positive half is greater than an absolute value of a valley voltage of a negative half; and a central control module , configured to output the control signal to the switch unit so as to adjust voltage and/or current of the second alternating output outputted by the voltage adjusting circuit , in response to a charging requirement of the battery .
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station , a system information block, SIB, including first maximum power information and at least one second maximum power information; obtaining a first maximum transmission power level for a cell based on the first maximum power information and a second maximum transmission power level for the cell based on one from the at least one second maximum power information; calculating a compensation parameter, P compensation , associated with a cell selection reception level value, Srxlev, based on the first maximum transmission power level and the second maximum transmission power level; calculating the Srxlev for the cell based on the P compensation ; and performing a cell selection for the cell based on the Srxlev, wherein the P compensation is calculated by: P compensation = max P EMAX 1 − P PowerClass , 0 − min P EMAX 2 P PowerClass − min P EMAX 1 , P PowerClass , where the P EMAX1 is the first maximum transmission power level, P EMAX2 is the second maximum transmission power level, and the P Powerclass is a maximum radio frequency output power of the terminal . receiving, from a base station , a system information block, SIB, including first maximum power information and at least one second maximum power information; obtaining a first maximum transmission power level for a cell based on the first maximum power information and a second maximum transmission power level for the cell based on one from the at least one second maximum power information; calculating a compensation parameter, P compensation , associated with a cell selection reception level value, Srxlev, based on the first maximum transmission power level and the second maximum transmission power level; calculating the Srxlev for the cell based on the P compensation ; and performing a cell selection for the cell based on the Srxlev, wherein the P compensation is calculated by: P compensation = max P EMAX 1 − P PowerClass , 0 − min P EMAX 2 P PowerClass − min P EMAX 1 , P PowerClass , where the P EMAX1 is the first maximum transmission power level, P EMAX2 is the second maximum transmission power level, and the P Powerclass is a maximum radio frequency output power of the terminal .