mhurhangee/patent-ind-claim-en huggingface dataset:
A folding clasp for a bracelet comprising: - a first blade and a second blade , hinged to each other, the second blade comprising two longitudinal members , - a first fastening member connected to the first blade and intended to be connected with a first free end of the bracelet; - a second fastening member, intended to be connected with a second free end of the bracelet; - a locking mechanism for holding said first and second blades in the closed position of the clasp when said blades are brought together and folded over each other, said locking mechanism comprising: - an operating member provided to be activated by a user to unlock the locking mechanism and to open the clasp; - a device to adjust the length of the bracelet comprising: - a movable part to which one of said first or second fastening member is attached, said movable part being arranged to be longitudinally movable with respect to the longitudinal direction of the bracelet when adjusting the length, - a blocking device arranged to block the movement of the movable part in at least one longitudinal movement direction, characterised in that said locking mechanism and said length-adjustment device are arranged such that an activation of said operating member by a user induces the unblock of said blocking device and allows the displacement of the movable part in said at least one longitudinal displacement direction. - a first blade and a second blade , hinged to each other, the second blade comprising two longitudinal members , - a first fastening member connected to the first blade and intended to be connected with a first free end of the bracelet; - a second fastening member, intended to be connected with a second free end of the bracelet; - a locking mechanism for holding said first and second blades in the closed position of the clasp when said blades are brought together and folded over each other, said locking mechanism comprising: - an operating member provided to be activated by a user to unlock the locking mechanism and to open the clasp; - a device to adjust the length of the bracelet comprising: - a movable part to which one of said first or second fastening member is attached, said movable part being arranged to be longitudinally movable with respect to the longitudinal direction of the bracelet when adjusting the length, - a blocking device arranged to block the movement of the movable part in at least one longitudinal movement direction, characterised in that said locking mechanism and said length-adjustment device are arranged such that an activation of said operating member by a user induces the unblock of said blocking device and allows the displacement of the movable part in said at least one longitudinal displacement direction. characterised in that said locking mechanism and said length-adjustment device are arranged such that an activation of said operating member by a user induces the unblock of said blocking device and allows the displacement of the movable part in said at least one longitudinal displacement direction.
A light source device configured to contact a subject's skin above a tender area in the subject's body comprising: a plurality of clusters of light delivery sources arranged in a ring, each of the clusters of light delivery sources comprising: a super pulsed infrared laser configured to generate a first portion of a light signal with a wavelength from 890-910 nm; a plurality of red light emitting diodes (LEDs) configured to generate a second portion of a light signal with a wavelength from 600-700 nm in a pulsed operating mode or a continuous operating mode; and a plurality of infrared LEDs configured to generate a third portion of a light signal with a wavelength from 810-880 in a pulsed operating mode or a continuous operating mode, wherein the super pulsed infrared laser is surrounded by the plurality of red LEDs and the plurality of infrared LEDs; and a permanent magnet that provides a constant magnetic field from 5 mT - 1 T; a processing unit preprogrammed with a time for application of the light signal to the tender point; and a battery. a plurality of clusters of light delivery sources arranged in a ring, each of the clusters of light delivery sources comprising: a super pulsed infrared laser configured to generate a first portion of a light signal with a wavelength from 890-910 nm; a plurality of red light emitting diodes (LEDs) configured to generate a second portion of a light signal with a wavelength from 600-700 nm in a pulsed operating mode or a continuous operating mode; and a plurality of infrared LEDs configured to generate a third portion of a light signal with a wavelength from 810-880 in a pulsed operating mode or a continuous operating mode, wherein the super pulsed infrared laser is surrounded by the plurality of red LEDs and the plurality of infrared LEDs; and a super pulsed infrared laser configured to generate a first portion of a light signal with a wavelength from 890-910 nm; a plurality of red light emitting diodes (LEDs) configured to generate a second portion of a light signal with a wavelength from 600-700 nm in a pulsed operating mode or a continuous operating mode; and a plurality of infrared LEDs configured to generate a third portion of a light signal with a wavelength from 810-880 in a pulsed operating mode or a continuous operating mode, wherein the super pulsed infrared laser is surrounded by the plurality of red LEDs and the plurality of infrared LEDs; and a permanent magnet that provides a constant magnetic field from 5 mT - 1 T; a processing unit preprogrammed with a time for application of the light signal to the tender point; and a battery.
A battery pack comprising: a cell group obtained by stacking a plurality of unit cells in a thickness direction, the unit cells each including a cell body having a power generation element and a flat shape, and an electrode tab protruding out from the cell body, and the electrode tabs having distal end portions bent in a stacking direction of the unit cells; and a flat plate shape bus bar connecting the distal end portions of the electrode tabs of the unit cells while facing the distal end portions, and electrically connecting the electrode tabs of at least two of the unit cells with each other, wherein the surface of the bus bar facing the unit cells is joined to the distal end portions of the at least two of the unit cells that are electrically connected by means of the bus bar, characterized in that the distal end portions are aligned in one direction, and the cell group comprises a spacer disposed between the electrode tabs of the stacked unit cells, the spacer being provided with a supporting portion which abuts the electrode tab from the opposite side of the bus bar and supports the distal end portion of the electrode tab. a cell group obtained by stacking a plurality of unit cells in a thickness direction, the unit cells each including a cell body having a power generation element and a flat shape, and an electrode tab protruding out from the cell body, and the electrode tabs having distal end portions bent in a stacking direction of the unit cells; and a flat plate shape bus bar connecting the distal end portions of the electrode tabs of the unit cells while facing the distal end portions, and electrically connecting the electrode tabs of at least two of the unit cells with each other, wherein the surface of the bus bar facing the unit cells is joined to the distal end portions of the at least two of the unit cells that are electrically connected by means of the bus bar, characterized in that the distal end portions are aligned in one direction, and the cell group comprises a spacer disposed between the electrode tabs of the stacked unit cells, the spacer being provided with a supporting portion which abuts the electrode tab from the opposite side of the bus bar and supports the distal end portion of the electrode tab.
A method implemented in a master node of controlling a transmission timing for a first slave node and a plurality of second slave nodes in a communication network, the method comprising: obtaining a first delay ( T first ) from the first slave node , said first delay ( T first ) representing a transmission time between the master node and the first slave node ; for each of the plurality of second slave nodes , obtaining a second delay ( T second,i ) from the corresponding second slave node , each of said second delays ( T second,i ) representing a transmission time between the master node and the corresponding second slave node ; subtracting the obtained first delay ( T first ) from each of the obtained second delays ( T second,i ) to determine a skew timing ( T skew,i ) for each of the second slave nodes ; the method being characterized in that it further comprises: determining a first reference value T first ref using a setpoint timing error ( T set ); for each of the second slave nodes determining a second reference value T second , i ref using a difference between the corresponding skew timing ( T skew,i ) and a reference skew timing T skew ref ; controlling the first delay ( T first ) using the first reference value T first ref ; and controlling each of the second delays ( T second,i ) using the corresponding second reference value T second , i ref . obtaining a first delay ( T first ) from the first slave node , said first delay ( T first ) representing a transmission time between the master node and the first slave node ; for each of the plurality of second slave nodes , obtaining a second delay ( T second,i ) from the corresponding second slave node , each of said second delays ( T second,i ) representing a transmission time between the master node and the corresponding second slave node ; subtracting the obtained first delay ( T first ) from each of the obtained second delays ( T second,i ) to determine a skew timing ( T skew,i ) for each of the second slave nodes ; the method being characterized in that it further comprises: determining a first reference value T first ref using a setpoint timing error ( T set ); for each of the second slave nodes determining a second reference value T second , i ref using a difference between the corresponding skew timing ( T skew,i ) and a reference skew timing T skew ref ; controlling the first delay ( T first ) using the first reference value T first ref ; and controlling each of the second delays ( T second,i ) using the corresponding second reference value T second , i ref . determining a first reference value T first ref using a setpoint timing error ( T set ); for each of the second slave nodes determining a second reference value T second , i ref using a difference between the corresponding skew timing ( T skew,i ) and a reference skew timing T skew ref ; controlling the first delay ( T first ) using the first reference value T first ref ; and controlling each of the second delays ( T second,i ) using the corresponding second reference value T second , i ref .
A thermoplastic composition comprising: from 5 wt% to 70 wt% poly(methyl methacrylate) (PMMA); from 15 wt% to 50 wt% of a first poly(carbonate-siloxane) copolymer having a siloxane content of from 35 wt% to 45 wt%; and from 10 wt% to 45 wt% of a second poly(carbonate-siloxane) copolymer, wherein the second poly(carbonate-siloxane) copolymer has a siloxane content of from 15 wt% to 25 wt% or from 4 wt% to 8 wt%. from 5 wt% to 70 wt% poly(methyl methacrylate) (PMMA); from 15 wt% to 50 wt% of a first poly(carbonate-siloxane) copolymer having a siloxane content of from 35 wt% to 45 wt%; and from 10 wt% to 45 wt% of a second poly(carbonate-siloxane) copolymer, wherein the second poly(carbonate-siloxane) copolymer has a siloxane content of from 15 wt% to 25 wt% or from 4 wt% to 8 wt%.
An Optical Power Level Modulation, OPLM, method for receiving data over an optical communication path, the method comprising: demultiplexing first and second streams of data received over the optical communication path using a plurality of detection models; determining that an optimization metric corresponding to an output of the demultiplexing operation matches an optimization condition ; and responsive to determining that the optimization metric corresponding to the output of the demultiplexing operation matches the optimization condition, updating at least one of the plurality of detection models based upon an observed data set, the observed data set comprising received photon counts and corresponding actual bit assignments as determined by an error correction operation performed on bit assignments determined during the demultiplexing operation; wherein the optimization metric is an error rate determined based upon an Error Correction Code, ECC, and the optimization condition is an error rate threshold; and the method further comprises: determining an error in a first bit assignment produced by the demultiplexing using the ECC; and saving a photon count that produced the first bit assignment and a correct bit assignment based upon the ECC as part of the observed data set. demultiplexing first and second streams of data received over the optical communication path using a plurality of detection models; determining that an optimization metric corresponding to an output of the demultiplexing operation matches an optimization condition ; and responsive to determining that the optimization metric corresponding to the output of the demultiplexing operation matches the optimization condition, updating at least one of the plurality of detection models based upon an observed data set, the observed data set comprising received photon counts and corresponding actual bit assignments as determined by an error correction operation performed on bit assignments determined during the demultiplexing operation; wherein the optimization metric is an error rate determined based upon an Error Correction Code, ECC, and the optimization condition is an error rate threshold; and the method further comprises: determining an error in a first bit assignment produced by the demultiplexing using the ECC; and saving a photon count that produced the first bit assignment and a correct bit assignment based upon the ECC as part of the observed data set. determining an error in a first bit assignment produced by the demultiplexing using the ECC; and saving a photon count that produced the first bit assignment and a correct bit assignment based upon the ECC as part of the observed data set.
A three-dimensional printing device comprising a body ; a printing head which is provided on the body and which performs the printing operation; a nozzle which is provided on the printing head and which is used for processing the material; and a printing table whereon the material leaving the nozzle is delivered, a calibration member which is provided on the printing head ; a plurality of actuation members which are provided on the body in the vicinity of the printing head ; and a control unit which determines the position of the printing head as the calibration member contacts one actuation member and the printing table ; a first actuation member (7.1) which is positioned at one side of the printing head and a second actuation member (7.2) which is positioned at the other side of the printing head , characterized by the calibration member having a first arm and a second arm which is arranged so as to form almost a right angle with the first arm ; and an electronic switch which is provided on the side opposite to the side where the first arm is positioned, the control unit being configured to execute an algorithm comprising the steps of moving the printing head towards the first actuation member (7.1) so as to make the first arm contact the first actuation member (7.1), making the calibration member rotate approximately 90 degrees as the first arm contacts the first actuation member (7.1), moving the printing table towards the printing head so as to make the electronic switch determine the limits of the printing table , moving the printing head towards the second actuation member (7.2) and making the second arm contact the second actuation member (7.2) so as to make the calibration member return to the initial position.
Data transmission system for a track-bound transport system comprising at least one vehicle having: - a plurality of vehicle-mounted optical transmitting/receiving devices on the at least one vehicle, arranged to the side, on both sides of the vehicle and behind one another when viewed in the direction of travel, - a plurality of track-mounted stationary optical transmitting/receiving devices , arranged along a route to be travelled by the vehicle , on the side of the route in sections on the left side of the track and in sections on the right side of the track , wherein in a transitional section the track-mounted optical transmitting/receiving devices are arranged on both sides of the track , - wherein the plurality of vehicle-mounted optical transmitting/receiving devices is designed to communicate at least with the track-mounted stationary optical transmitting/receiving device positioned the closest thereto and independently to maintain separate communication links at as full a bandwidth as possible with one of the track-mounted stationary optical transmitting/receiving devices , and - wherein in a transitional section the vehicle simultaneously communicates via vehicle-mounted optical transmitting/receiving devices on both sides of the vehicle. - a plurality of vehicle-mounted optical transmitting/receiving devices on the at least one vehicle, arranged to the side, on both sides of the vehicle and behind one another when viewed in the direction of travel, - a plurality of track-mounted stationary optical transmitting/receiving devices , arranged along a route to be travelled by the vehicle , on the side of the route in sections on the left side of the track and in sections on the right side of the track , wherein in a transitional section the track-mounted optical transmitting/receiving devices are arranged on both sides of the track , - wherein the plurality of vehicle-mounted optical transmitting/receiving devices is designed to communicate at least with the track-mounted stationary optical transmitting/receiving device positioned the closest thereto and independently to maintain separate communication links at as full a bandwidth as possible with one of the track-mounted stationary optical transmitting/receiving devices , and - wherein in a transitional section the vehicle simultaneously communicates via vehicle-mounted optical transmitting/receiving devices on both sides of the vehicle.
A method for linking nucleic acid molecules or fragments thereof, comprising: (a) segregating individual nucleic acid molecules labeled on both terminal ends with a first adapter pair comprising a forward sequence (F) and a reverse sequence (R), into individual discrete volumes; (b) inserting, within the individual discrete volumes, at least a second adapter into two or more interior locations of the nucleic acid molecule; (c) fragmenting the nucleic acid molecules to generate nucleic acid fragments of the nucleic acid molecule of which a least a portion are labeled with both the first adapter pair and the second adapter; (d) contacting the nucleic acid fragments with at least a first and a second primer, wherein the first primer comprises at least two 5'-5'-linked arms, wherein a first arm of the at least two 5'-5'-linked arms comprises a sequence that hybridizes to the forward (F) sequence of the first adapter pair and a second arm of the at least two 5'-5'-linked arms comprises a sequence that hybridizes to the reverse (R) sequence of the first adapter pair, and wherein the second primer comprises a sequence that hybridizes to the second adapter; and (e) amplifying the nucleic acid molecules using both the first and second primers by PCR amplification or isothermal amplification. (a) segregating individual nucleic acid molecules labeled on both terminal ends with a first adapter pair comprising a forward sequence (F) and a reverse sequence (R), into individual discrete volumes; (b) inserting, within the individual discrete volumes, at least a second adapter into two or more interior locations of the nucleic acid molecule; (c) fragmenting the nucleic acid molecules to generate nucleic acid fragments of the nucleic acid molecule of which a least a portion are labeled with both the first adapter pair and the second adapter; (d) contacting the nucleic acid fragments with at least a first and a second primer, wherein the first primer comprises at least two 5'-5'-linked arms, wherein a first arm of the at least two 5'-5'-linked arms comprises a sequence that hybridizes to the forward (F) sequence of the first adapter pair and a second arm of the at least two 5'-5'-linked arms comprises a sequence that hybridizes to the reverse (R) sequence of the first adapter pair, and wherein the second primer comprises a sequence that hybridizes to the second adapter; and (e) amplifying the nucleic acid molecules using both the first and second primers by PCR amplification or isothermal amplification.
A molybdenum disulfide powder product produced by jet milling a molybdenum disulfide precursor material and substantially continuously combining newly size-reduced particles with oil to produce said molybdenum disulfide powder product, said molybdenum disulfide powder product having a D50 particle size of less than 4 μm, an oil number of less than 0.4 weight percent, and an acid number that is less than 0.5 mg KOH/g.
Method for charging electric consumers , for example electric vehicles, at a power supply network with multiple phases , - whereby phase currents of the phases of the power supply network are measured at a balance point , - whereby for each of the electric consumers connected to the power supply network for charging via the balance point the phase to which the electric consumer is connected is determined, and - whereby an unbalanced load of the phases is held below an unbalanced load threshold value by communicating a power specification to each electric consumer connected for charging, - whereby the power specification includes how much charging power may be additionally drawn at the time concerned, or by how much the charging power must be reduced, - whereby when the phase current of one phase lies above a load threshold value or the phase current of this phase is greater than the lowest measured phase current of one of the other phases with the addition of the unbalanced load threshold value, the fact that the charging power must be reduced is signalled via the power specification, characterised in - that when the phase current of one phase lies below the load threshold value and the phase current of this phase is smaller than the lowest measured phase current of one of the other phases with the addition of the unbalanced load threshold value, the fact that additional charging power may be drawn is signalled via the power specification. - whereby phase currents of the phases of the power supply network are measured at a balance point , - whereby for each of the electric consumers connected to the power supply network for charging via the balance point the phase to which the electric consumer is connected is determined, and - whereby an unbalanced load of the phases is held below an unbalanced load threshold value by communicating a power specification to each electric consumer connected for charging, - whereby the power specification includes how much charging power may be additionally drawn at the time concerned, or by how much the charging power must be reduced, - whereby when the phase current of one phase lies above a load threshold value or the phase current of this phase is greater than the lowest measured phase current of one of the other phases with the addition of the unbalanced load threshold value, the fact that the charging power must be reduced is signalled via the power specification, - that when the phase current of one phase lies below the load threshold value and the phase current of this phase is smaller than the lowest measured phase current of one of the other phases with the addition of the unbalanced load threshold value, the fact that additional charging power may be drawn is signalled via the power specification.