mhurhangee/patent-ind-claim-en huggingface dataset:
A unit (20, 20', 20") for a bus system , having a bus interface; a control inlet for receiving an inlet-side signal and a control outlet for sending an outlet-side signal; wherein the control inlet is connected to an inlet circuit for processing the inlet-side signal and the control outlet is connected to an outlet circuit for generating the outlet-side signal; an address memory which is formed to store a collective broadcast address and an individual unit address; and wherein the outlet circuit is formed to generate the signal applied to the signal outlet from a supply voltage of the unit (20, 20', 20") or from an external voltage, wherein the unit is a slave unit of a master slave bus system and the unit address is a slave address, and wherein the unit is characterised in that it is further formed to switch to an addressing mode from an operating mode upon receipt of an addressing command directed to the broadcast address via the bus interface or another signal, to generate a blocking signal with the outlet circuit in the addressing mode and to send the blocking signal to the control outlet as an outlet-side signal and to switch from the addressing mode to an assignment mode upon receipt of a release signal at the control inlet , to store an address received via the bus interface as an individual unit address in the address memory in the assignment mode and to switch from the assignment mode to a waiting mode after storing the unit address, to generate a release signal with the outlet circuit in the waiting mode and to send the release signal as an outlet-side signal at the control outlet . a bus interface; a control inlet for receiving an inlet-side signal and a control outlet for sending an outlet-side signal; wherein the control inlet is connected to an inlet circuit for processing the inlet-side signal and the control outlet is connected to an outlet circuit for generating the outlet-side signal; an address memory which is formed to store a collective broadcast address and an individual unit address; and wherein the outlet circuit is formed to generate the signal applied to the signal outlet from a supply voltage of the unit (20, 20', 20") or from an external voltage, wherein the unit is a slave unit of a master slave bus system and the unit address is a slave address, and wherein the unit is characterised in that it is further formed to switch to an addressing mode from an operating mode upon receipt of an addressing command directed to the broadcast address via the bus interface or another signal, to generate a blocking signal with the outlet circuit in the addressing mode and to send the blocking signal to the control outlet as an outlet-side signal and to switch from the addressing mode to an assignment mode upon receipt of a release signal at the control inlet , to store an address received via the bus interface as an individual unit address in the address memory in the assignment mode and to switch from the assignment mode to a waiting mode after storing the unit address, to generate a release signal with the outlet circuit in the waiting mode and to send the release signal as an outlet-side signal at the control outlet .
A method for generating a dental arch map for a patient comprising: acquiring a 3D surface image of patient dentition; automatically segmenting the 3D surface image to identify individual 3D tooth contours; projecting the individual 3D tooth contours along a 2D plane to form a mapping of outlines for the segmented teeth; labeling the mapping according to a tooth numbering scheme; and displaying the labeled mapping. acquiring a 3D surface image of patient dentition; automatically segmenting the 3D surface image to identify individual 3D tooth contours; projecting the individual 3D tooth contours along a 2D plane to form a mapping of outlines for the segmented teeth; labeling the mapping according to a tooth numbering scheme; and displaying the labeled mapping.
A printing apparatus comprising: a plurality of image forming units, each of which ejects ink onto an outer circumferential surface of a rotating can body to form an image on the outer circumferential surface; a receiving gear that is provided to move with the can body and to rotate linked with rotation of the can body; and a transmission gear that is arranged along a moving route of the can body and is engaged with the receiving gear, wherein the receiving gear engaged with the transmission gear moves while rotating when the can body moves from one of two of the image forming units adjacent to each other to the other one, and characterised in that number of rotations of the can body in moving between the one to the other is set depending on the receiving gear and the transmission gear, and the can body is rotated an integer number of times during a period from starting to move the can body from the one to reaching the other. a plurality of image forming units, each of which ejects ink onto an outer circumferential surface of a rotating can body to form an image on the outer circumferential surface; a receiving gear that is provided to move with the can body and to rotate linked with rotation of the can body; and a transmission gear that is arranged along a moving route of the can body and is engaged with the receiving gear, wherein the receiving gear engaged with the transmission gear moves while rotating when the can body moves from one of two of the image forming units adjacent to each other to the other one, and characterised in that number of rotations of the can body in moving between the one to the other is set depending on the receiving gear and the transmission gear, and the can body is rotated an integer number of times during a period from starting to move the can body from the one to reaching the other.
A vapour generating device comprising: a chamber for receiving a vapour generating material ; a vaporiser for vaporising a vapour generating material received in the chamber ; at least one strain gauge arranged to measure a strain generated by a vapour generating material received in the chamber ; and a controller arranged to determine an operation that is dependent on the measured strain; and characterised in that : the at least one strain gauge comprises two or more strain gauges evenly distributed around side walls of the chamber ; and/or the strain gauge(s) is/are arranged to guide the vapour generating material toward a desired position in the chamber . a chamber for receiving a vapour generating material ; a vaporiser for vaporising a vapour generating material received in the chamber ; at least one strain gauge arranged to measure a strain generated by a vapour generating material received in the chamber ; and a controller arranged to determine an operation that is dependent on the measured strain; and characterised in that : the at least one strain gauge comprises two or more strain gauges evenly distributed around side walls of the chamber ; and/or the strain gauge(s) is/are arranged to guide the vapour generating material toward a desired position in the chamber . the at least one strain gauge comprises two or more strain gauges evenly distributed around side walls of the chamber ; and/or the strain gauge(s) is/are arranged to guide the vapour generating material toward a desired position in the chamber .
A method performed by a terminal in wireless communication systems, the method comprising: identifying an unused available spectrum of a first signal based on an occupied signal bandwidth of the first signal and a spectral mask for the occupied signal bandwidth, generating a spectral mask filling, SMF, sequence in a time domain by modulating the SMF sequence in a frequency domain corresponding to the unused available spectrum, the first signal including a first peak and the SMF sequence in the time domain including a second peak aligned with the first peak; generating a second signal corresponding to the first signal in which the first peak is cancelled by using the SMF sequence in the time domain; and transmitting, to a base station, the second signal; wherein the SMF sequence in the frequency domain is generated based on an equation defined as: C f = { 0 f ≤ f D A f f D < f ≤ f 1 0 f 1 < f ≤ f S where: fs is a sampling frequency, f D is the occupied signal bandwidth, f 1 is a maximum frequency under the spectral mask, A(f) is a normalized amplitude of a corresponding power spectral density mask, and C(f) is the sequence in the frequency domain. identifying an unused available spectrum of a first signal based on an occupied signal bandwidth of the first signal and a spectral mask for the occupied signal bandwidth, generating a spectral mask filling, SMF, sequence in a time domain by modulating the SMF sequence in a frequency domain corresponding to the unused available spectrum, the first signal including a first peak and the SMF sequence in the time domain including a second peak aligned with the first peak; generating a second signal corresponding to the first signal in which the first peak is cancelled by using the SMF sequence in the time domain; and transmitting, to a base station, the second signal; wherein the SMF sequence in the frequency domain is generated based on an equation defined as: C f = { 0 f ≤ f D A f f D < f ≤ f 1 0 f 1 < f ≤ f S where: fs is a sampling frequency, f D is the occupied signal bandwidth, f 1 is a maximum frequency under the spectral mask, A(f) is a normalized amplitude of a corresponding power spectral density mask, and C(f) is the sequence in the frequency domain. fs is a sampling frequency, f D is the occupied signal bandwidth, f 1 is a maximum frequency under the spectral mask, A(f) is a normalized amplitude of a corresponding power spectral density mask, and C(f) is the sequence in the frequency domain.
A speaker comprising: a yoke comprising a base and a column , wherein the column extends from one end of the base , the other end of the column away from the base has a protruding portion and a ring-shaped flange , the ring-shaped flange surrounds the protruding portion , and a ring-shaped groove is located between the ring-shaped flange and the protruding portion ; a ring-shaped magnet comprising a first central axial hole , wherein the column passes through the first central axial hole , so that the ring-shaped magnet is sleeved on the yoke ; a first flux plate comprising a first central through hole , wherein the column passes through the first central through hole , so that the first flux plate is disposed on the ring-shaped magnet ; an isolating ring , wherein the protruding portion passes through the isolating ring , so that the isolating ring is disposed in the ring-shaped groove ; a second flux plate comprising a second central through hole , wherein the second central through hole and the first central through hole have a same central axis, the protruding portion passes through the second central through hole , the second concentrating flux plate is disposed on the isolating ring , a first magnetic gap is located between the second flux plate and the first flux plate , and a second magnetic gap is located between the second flux plate and the protruding portion ; a first voice coil located in the first magnetic gap ; and a second voice coil located in the second magnetic gap . a yoke comprising a base and a column , wherein the column extends from one end of the base , the other end of the column away from the base has a protruding portion and a ring-shaped flange , the ring-shaped flange surrounds the protruding portion , and a ring-shaped groove is located between the ring-shaped flange and the protruding portion ; a ring-shaped magnet comprising a first central axial hole , wherein the column passes through the first central axial hole , so that the ring-shaped magnet is sleeved on the yoke ; a first flux plate comprising a first central through hole , wherein the column passes through the first central through hole , so that the first flux plate is disposed on the ring-shaped magnet ; an isolating ring , wherein the protruding portion passes through the isolating ring , so that the isolating ring is disposed in the ring-shaped groove ; a second flux plate comprising a second central through hole , wherein the second central through hole and the first central through hole have a same central axis, the protruding portion passes through the second central through hole , the second concentrating flux plate is disposed on the isolating ring , a first magnetic gap is located between the second flux plate and the first flux plate , and a second magnetic gap is located between the second flux plate and the protruding portion ; a first voice coil located in the first magnetic gap ; and a second voice coil located in the second magnetic gap .
A composition for nail varnish, which is free of nitrocellulose or having a nitrocellulose concentration of less than, or not exceeding, 5,000 ppm, and which includes, in a cosmetically acceptable organic solvent: - a primary film-forming agent consisting of polyvinyl butyral, - a fumed silica, - at least one secondary resin, - at least one plasticiser, - at least one colourant, which is insoluble in said solvent. - a primary film-forming agent consisting of polyvinyl butyral, - a fumed silica, - at least one secondary resin, - at least one plasticiser, - at least one colourant, which is insoluble in said solvent.
A composition comprising hyaluronic acid or a salt thereof, spring and/or mineral water in a content greater than 20% by weight relative to the total weight of the composition, and at least one acrylic acid polymer, a copolymer of acrylic acid and of alkylacrylate, or one of the mixtures thereof, wherein the composition is in a single phase, and wherein it is provided in the form of a gel, characterized in that the gel is transparent, wherein the hyaluronic acid or a salt thereof is present in a dry matter content of between 0.05% and 1 % by weight relative to the total weight of the composition, wherein the acrylic acid polymer is a homopolymer of crosslinked acrylic acid and the copolymer of acrylic acid and of alkylacrylate is chosen from the copolymers of (i) monomer of the following formula (I): wherein R 1 denotes H or CH 3 or C 2 H 5 , and of (ii) monomer of the following formula (II): H 2 C=CR 1 -COOR 3 (II) wherein R 1 is same as or different from that in formula (I), denotes H or CH 3 or C 2 H 5 , R 3 denotes a C 10 -Ca 30 , alkyl group, wherein the acrylic acid polymer, the copolymer of acrylic acid and of alkylacrylate or a mixture thereof is present in the composition in a dry matter content of between 0.01% and 5% by weight, relative to the total weight of the composition. wherein the acrylic acid polymer is a homopolymer of crosslinked acrylic acid and the copolymer of acrylic acid and of alkylacrylate is chosen from the copolymers of (i) monomer of the following formula (I): wherein R 1 denotes H or CH 3 or C 2 H 5 , and of (ii) monomer of the following formula (II): H 2 C=CR 1 -COOR 3 (II) wherein R 1 is same as or different from that in formula (I), denotes H or CH 3 or C 2 H 5 , R 3 denotes a C 10 -Ca 30 , alkyl group,
A substrate comprising: a primary circuit ; a secondary circuit ; and a ground (GND) pattern (41, 42 or 51), characterized in that in a path between the primary circuit and the secondary circuit without passing through the GND pattern (41, 42, or 51), reinforced insulation is provided between the primary circuit and the secondary circuit , and in a path between the primary circuit and the secondary circuit through the GND pattern (41, 42, or 51), one of 1) a combination of reinforced insulation and functional insulation and 2) a combination of basic insulation, additional insulation, and functional insulation is provided between the primary circuit and the secondary circuit , wherein the basic insulation is adapted to protect from electronic shock on a basic level, the reinforced insulation is a single type of insulation adapted to provide both basic insulation and supplementary insulation, the supplementary insulation being independent of the basic insulation and being applied with the basic insulation to reduce electric shock when the basic insulation fails, the functional insulation is adapted to protect only the normal operation of a device, and the additional insulation is independent of the basic insulation and is applied in addition to the basic insulation to protect the circuit when the basic insulation fails. a primary circuit ; a secondary circuit ; and a ground (GND) pattern (41, 42 or 51), characterized in that in a path between the primary circuit and the secondary circuit without passing through the GND pattern (41, 42, or 51), reinforced insulation is provided between the primary circuit and the secondary circuit , and in a path between the primary circuit and the secondary circuit through the GND pattern (41, 42, or 51), one of 1) a combination of reinforced insulation and functional insulation and 2) a combination of basic insulation, additional insulation, and functional insulation is provided between the primary circuit and the secondary circuit , wherein the basic insulation is adapted to protect from electronic shock on a basic level, the reinforced insulation is a single type of insulation adapted to provide both basic insulation and supplementary insulation, the supplementary insulation being independent of the basic insulation and being applied with the basic insulation to reduce electric shock when the basic insulation fails, the functional insulation is adapted to protect only the normal operation of a device, and the additional insulation is independent of the basic insulation and is applied in addition to the basic insulation to protect the circuit when the basic insulation fails.
A wireless device enabled to operate in a cellular communications network according to a carrier aggregation scheme using both a licensed frequency band and an unlicensed frequency band, comprising: a transceiver ; at least one processor ; and memory containing instructions which, when executed by the at least one processor , cause the wireless device to: determine whether a Channel State Information Reference Symbol, CSI-RS, transmission from a License Assisted Secondary Cell, LA SCell, of the wireless device is present in a subframe, the LA SCell being in an unlicensed frequency band; upon determining that a CSI-RS transmission from the LA SCell is present in the subframe, perform a first type of interference measurement on configured Channel State Information Interference Measurement, CSI-IM, resources in the subframe, wherein the first type of interference measure is a CSI-IM measurement when the wireless device has determined that the LA SCell is transmitting; and upon determining that a CSI-RS transmission from the LA SCell is not present in the subframe, perform a second type of interference measurement on the configured CSI-IM resources in the subframe, wherein the second type of interference measurement is a CSI-IM measurement when the wireless device has determined that the LA SCell is not transmitting. a transceiver ; at least one processor ; and memory containing instructions which, when executed by the at least one processor , cause the wireless device to: determine whether a Channel State Information Reference Symbol, CSI-RS, transmission from a License Assisted Secondary Cell, LA SCell, of the wireless device is present in a subframe, the LA SCell being in an unlicensed frequency band; upon determining that a CSI-RS transmission from the LA SCell is present in the subframe, perform a first type of interference measurement on configured Channel State Information Interference Measurement, CSI-IM, resources in the subframe, wherein the first type of interference measure is a CSI-IM measurement when the wireless device has determined that the LA SCell is transmitting; and upon determining that a CSI-RS transmission from the LA SCell is not present in the subframe, perform a second type of interference measurement on the configured CSI-IM resources in the subframe, wherein the second type of interference measurement is a CSI-IM measurement when the wireless device has determined that the LA SCell is not transmitting.
Method to move a mobile infusion unit of a machine for preparing coffee beverages provided with an infusion chamber , according to a predefined trajectory, from at least one initial position to at least one position for closing the chamber and at least one position for discharging the exhausted coffee powder , wherein the machine comprises the infusion unit provided with the infusion chamber , a direct current motor connected to said infusion unit and with a control circuit for said motor , wherein the direct current motor is powered by an alternating supply voltage (Vin), characterized in that said method provides to detect the instant of the zero-crossing of the supply voltage (Vin) and to selectively activate a switch device to power the motor by means of the positive half-waves (Vin1) of the supply voltage (Vin) in order to make it rotate in one sense between said initial position and at least said closing position, and by means of the negative half-waves (Vin2) in order to make it rotate in the opposite sense from said closing position at least toward said discharging position, and in that said method provides to activate said switch device with a determinate delay time (Td1, Td2) with respect to said instant of the zero-crossing of said supply voltage (Vin) so that said switch device enters into conduction at the instant of commutation of the current (Im) on the motor from a negative value to a positive value, or, respectively, from a positive value to a negative value.
A method for detecting a target molecule in a sample by means of a metal wire, said method comprising the steps of: a) providing a detection biomolecule interacting with the target molecule, wherein said detection biomolecule is linked to an enzyme; b) contacting the sample with the detection biomolecule, thereby the detection biomolecule and the target molecule interacting together; c) separating non-interacting and interacting detection biomolecules; d) adding a substrate of the enzyme; transforming the substrate by enzymatic catalysis into a product , said product being a reactive species dissolving metal of said metal wire selected from the group consisting of cyanide, cyanohydrin, hypochlorite, hypobromites, iodine, triiodide, thiocyanate, thereby altering the conductivity of the metal wire; e) measuring the conductivity/resistance of the metal wire; and said metal wire having a weight between 100 pg and 10 μg. a) providing a detection biomolecule interacting with the target molecule, wherein said detection biomolecule is linked to an enzyme; b) contacting the sample with the detection biomolecule, thereby the detection biomolecule and the target molecule interacting together; c) separating non-interacting and interacting detection biomolecules; d) adding a substrate of the enzyme; transforming the substrate by enzymatic catalysis into a product , said product being a reactive species dissolving metal of said metal wire selected from the group consisting of cyanide, cyanohydrin, hypochlorite, hypobromites, iodine, triiodide, thiocyanate, thereby altering the conductivity of the metal wire; e) measuring the conductivity/resistance of the metal wire; and